Basalt fiber concrete panel humidity testing device and testing method

Abstract

The present invention discloses a basalt fiber concrete panel humidity testing device and a testing method thereof. The device comprises a base, a sliding base and a driving device provided on the base, carrier plates evenly provided on the sliding base, a concrete panel disposed on the carrier plates, and a driving device capable of driving the sliding base to move forward at a uniform speed. The base is also provided with a detection device and a triggering device. The present invention provides a basalt fiber concrete panel humidity testing device and a testing method thereof. The device automatically controls the activation of humidity testing of the concrete panel according to evaporation conditions, so that the humidity of the concrete panel can be tested before the moisture in the concrete panel evaporates completely under different weather conditions. At the same time, the concrete panel is independently sprayed according to the detected value, so that all concrete panels are maintained within an appropriate humidity range, reducing individual differences, increasing the uniformity of the concrete panels, and improving the pass rate.

Description

Technical Field

[0001] The present invention relates to the technical field of concrete humidity detection, in particular to a basalt fiber concrete panel humidity detection device and a detection method thereof. Background Art

[0002] During the pouring process of basalt fiber concrete panels, it is necessary to pay attention to the humidity of the concrete slab at all times. During the curing process of concrete, it is affected by the weather at the time, so the drying and curing time is different. In hot weather, the moisture in the concrete slab evaporates too quickly, which will cause the concrete slab to crack during the curing process, thereby affecting the quality of the concrete slab. Now, the concrete slab is sprayed with water at regular intervals to slow down the curing speed of the concrete slab, thereby reducing the cracking of the concrete slab.

[0003] However, timed spraying will not adjust the spraying time according to weather conditions, and it cannot grasp the humidity of the concrete slab. The evaporation rate of each concrete slab is different, so it is impossible to perform precise spraying operations on the concrete slab. Summary of the Invention

[0004] Aiming at the deficiencies in the prior art, the present invention provides a basalt fiber concrete panel humidity testing device and a testing method thereof.

[0005] In order to solve the above technical problems, the present invention is solved through the following technical solutions: a basalt fiber concrete panel humidity testing device, including a base, a sliding base and a driving device are provided on the base, a carrier plate is evenly provided on the sliding base, the concrete plate is provided on the carrier plate, the driving device can drive the sliding base to move forward at a uniform speed, and a detection device and a trigger device are also provided on the base, the detection device includes a detection frame, a sliding frame and a detection plate, the detection frame is arranged on the moving track of the sliding base, the trigger device includes an evaporation plate, the evaporation plate is arranged on the detection frame, a sliding groove is also provided in the evaporation plate, a floating block is slidingly provided in the sliding groove, and pressure touch switches are provided at the upper and lower ends of the sliding groove. The floating block presses the pressure touch switch below to energize the driving device, thereby driving the sliding base to start moving, a first guide column is provided on the detection frame, and the sliding frame elastically guides and slides on the first guide column, and the bottom of the detection plate The surface is provided with a humidity detection head, and the upper end surface is provided with a second guide post, which is elastically slidably arranged on the sliding frame through the second guide post. The detection plate is also elastically slidably provided with a carrier block, and the carrier plate can touch the carrier block when passing by, thereby driving the detection plate to move with the carrier plate. A first cavity is provided in the first guide post, and a magnetic block is slidably provided in the first cavity, and the rear end of the magnetic block is connected to one end of an elastic pull rope, and the other end extends out of the first guide post and is arranged on the connecting plate at the upper end of the second guide post, and a magnetic ring is provided in the sliding frame. The movement of the detection plate drives the sliding frame to move together, thereby driving the magnetic block to move together, tightening the elastic pull rope to make the detection plate move downward, and the humidity detection head is pressed on the concrete slab. After moving one end distance, the elastic pull rope reaches the maximum stretching length, so that the magnetic block no longer follows the magnetic ring to move, the magnetic connection between the two disappears, the downward pulling force of the detection plate disappears, and it returns to its initial state.

[0006] Its beneficial effect is that it automatically controls the humidity detection of concrete slabs according to the evaporation situation, so that the humidity of concrete slabs can be detected before the moisture in the concrete slabs evaporates in different weather conditions. At the same time, the concrete slabs are independently sprayed according to the detected values, so that all concrete slabs are maintained in an appropriate humidity range, reducing individual differences, increasing the uniformity of concrete slabs, and improving the pass rate.

[0007] In the above scheme, preferably, a first inclined block is provided on the detection frame, and a lifting rod is provided on the carrier block. When the carrier plate drives the detection plate to move close to the detection frame, the lifting rod touches the first inclined block, thereby moving upward along the first inclined block, and the contact between the lower end of the carrier block and the carrier plate is eliminated, and the sliding frame drives the detection plate to move forward and return to its initial state.

[0008] In the above scheme, preferably, the detection frame is provided with a spray device, which includes a water tank, a spray pipe, a water pump and a controller. The controller controls the start and speed of the water pump. The water pump is arranged in the water tank, and the water outlet is connected to the spray pipe. The spray device is located behind the detection device, and the spray pipe can spray the surface of the passing concrete slab.

[0009] In the above scheme, preferably, a data transmission male port is elastically slidingly provided on the detection frame, and a data transmission female port is provided on the sliding frame. When the lifting rod contacts the first inclined block, the data transmission male port is first connected to the data transmission female port, thereby transmitting the value detected by the humidity detection head to the controller to control the speed of the water pump.

[0010] In the above scheme, preferably, two first guide pillars are provided, and a first elastic member is sleeved on the first guide pillar, and its two ends respectively touch the detection frame and the sliding frame, and two second guide pillars are provided, and a second elastic member is sleeved on the second guide pillar, and its two ends respectively touch the sliding frame and the connecting plate at the upper end of the second guide pillar.

[0011] Its beneficial effect is that it automatically controls the humidity detection of concrete slabs according to the evaporation situation, so that the humidity of concrete slabs can be detected before the moisture in the concrete slabs evaporates in different weather conditions. At the same time, the concrete slabs are independently sprayed according to the detected values, so that all concrete slabs are maintained in an appropriate humidity range, reducing individual differences, increasing the uniformity of concrete slabs, and improving the pass rate.

[0012] In the above scheme, preferably, the water pump is provided with a first water outlet and a second water outlet, the first water outlet is connected to the spray pipe through a pipeline, and the second water outlet is connected to the evaporation disk, and the controller can control the opening and closing of the first water outlet and the second water outlet respectively, so that the evaporation disk can be replenished with water.

[0013] Its beneficial effect is that it can automatically reset and repeat.

[0014] The inspection method using the basalt fiber concrete panel humidity inspection device as claimed in claim:

[0015] S1: The water in the evaporation tray evaporates and the driving device drives the sliding base to move forward at a constant speed.

[0016] S2: The carrier plate drives the detection plate to move together, and at the same time completes the moisture detection of the concrete slab above the carrier plate. After the detection is completed, the data transmission male port is first connected to the data transmission female port to transmit the data to the controller of the spray device. At the same time, the carrier plate is separated from the detection plate, and the detection plate returns to its initial state.

[0017] S3: After the carrier plate enters the spraying area, the controller sprays the concrete plate in a quantitative manner according to the data measured by the humidity detection head to keep its humidity within a certain range.

[0018] The beneficial effects of the present invention are as follows: the present invention provides a basalt fiber concrete panel humidity detection device and a detection method thereof, which automatically controls the start of humidity detection of the concrete slab according to the evaporation situation, so that the humidity of the concrete slab can be detected before the moisture in the concrete slab evaporates in different weather conditions. At the same time, the concrete slab is independently sprayed according to the detected value, so that all concrete slabs are maintained in an appropriate humidity range, reducing individual differences, increasing the uniformity of the concrete slabs, and improving the pass rate. BRIEF DESCRIPTION OF THE DRAWINGS

[0019] Figure 1 Schematic diagram of the present invention.

[0020] Figure 2 It is a cross-sectional view of the present invention.

[0021] Figure 3 Schematic diagram of the detection device of the present invention.

[0022] Figure 4 It is a top view of the detection device of the present invention.

[0023] Figure 5 It is a cross-sectional view of the detection device of the present invention.

[0024] Figure 6 Schematic diagram of the trigger device of the present invention.

[0025] Figure 7 This is a schematic diagram of the unlocked state of the carrier block of the present invention. DETAILED DESCRIPTION

[0026] The present invention is further described in detail below with reference to the accompanying drawings and specific embodiments: Figure 1-Figure 7 The basalt fiber concrete panel humidity inspection device includes a base 1, a guide rail and a driving device 12 are provided on the base 1, a sliding base 11 is provided on the guide rail for guiding sliding, a threaded sleeve 111 is provided on the sliding base 11, and the driving device 12 includes a driving motor 121 and a threaded screw 122, the threaded screw 122 is connected to the driving motor 121, the driving motor 121 is provided on the base 1, and the threaded screw 122 is provided in conjunction with the threaded sleeve 111, the driving motor 121 rotates to drive the threaded screw 122 to rotate, so that the threaded sleeve 111 slides on the threaded screw 122, thereby driving the sliding base 11 to move forward, a plurality of carrier plates 13 are evenly arranged on the sliding base 11, and the cast concrete slab is placed on the carrier plate 13 to allow the concrete slab to dry and solidify.

[0027] The base 1 is also provided with a detection device 2, a trigger device 3 and a spray device 4. The detection device 2 includes a detection frame 21, a sliding frame 22 and a detection plate 23. The detection frame 21 is arranged on the base 1 and is located on the moving track of the sliding base 11. The trigger device 3 includes an evaporation plate 31, which is arranged on the detection frame 21. A sliding groove 311 is also provided in the evaporation plate 31, and a floating block 32 is slidingly provided in the sliding groove 311. Touch switches are provided at the upper and lower ends of the sliding groove 311.

[0028] In the initial state, a fixed amount of water is set in the evaporation tray 31 and is exposed to the air. The time required for the water in the evaporation tray 31 to evaporate completely varies under different weather conditions. A pressure-touch switch is provided at the lower end of the evaporation tray 31. When the water in the evaporation tray 31 evaporates completely, the floating block 32 presses on the pressure-touch switch to control the driving motor 121 to turn on. Since the initial amount of water is fixed, the device can be turned on according to the real-time evaporation amount.

[0029] The detection frame 21 is provided with two first guide posts 211, and the sliding frame 22 is slidably arranged on the two first guide posts 211 at the same time, and a first elastic member 215 is sleeved on the first guide posts 211, and its two ends respectively touch the detection frame 21 and the sliding frame 22, so that in the initial state, the front end of the sliding frame 22 touches the limit block at the front end of the first guide post 211, and a humidity detection head 231 is provided on the bottom surface of the detection plate 23, and 3 are provided, which can detect the humidity conditions of 3 points respectively. Two second guide posts 232 are provided on the upper end surface, and a connecting plate is provided on the upper end of the two second guide posts 232, and the second elastic member 233 is sleeved on the second guide post 232, and its two ends respectively touch the sliding frame 22 and the second guide post 232 upper end connecting plate, so that in the initial state, the detection The upper end surface of the plate 23 contacts the lower end surface of the sliding frame 22, and a carrying block 24 is also slidably provided on the detection plate 23, and a third elastic member 242 is sleeved on the carrying block 24, and an electromagnetic block 243 is provided in the middle position of the carrying block 24. The two ends of the third elastic member 242 respectively contact the upper end surface of the electromagnetic block 243 and the lower end surface of the detection plate 23. In the initial state, the limit block at the upper end of the carrying block 24 presses on the detection plate 23, and the carrier 13 can contact the lower end of the carrying block 24 when passing, thereby driving the detection plate 23 to move with the carrier 13. A first cavity 212 is provided in the first guide column 211, and a magnetic block 213 is slidably provided in the first cavity 212, and the rear end of the magnetic block 213 is connected to one end of the elastic pull rope 25, and the other end extends out of the first guide column 211 and is arranged on the upper end connecting plate of the second guide column 232, and a magnetic ring 221 is provided in the sliding frame 22.

[0030] When the driving motor 121 is started, the sliding base 11 is driven to move forward at a constant speed. During the forward movement, the carrier plate 13 contacts the lower end of the carrier block 24, thereby driving the detection plate 23 to move backward together. The detection plate 23 is slidably arranged on the sliding frame 22, so the detection plate 23 moves backward and drives the sliding frame 22 to move together. In the initial state, the magnetic block 213 and the magnetic ring 221 are magnetically connected together, thereby driving the magnetic block 213 to move backward together. During the movement, one end of the elastic pull rope 25 is driven to move, thereby pushing the upper end connecting plate of the second guide column 232 to Pulling down causes the detection plate 23 to move downward, and the humidity detection head 231 presses on the concrete slab. The humidity detection head 231 detects the humidity of the concrete slab. After moving one end distance, the elastic pull rope 25 reaches the maximum stretching length and cannot be stretched any further. Therefore, the magnetic block 213 and the magnetic ring 221 are misaligned, and the magnetic connection disappears. The magnetic block 213 returns to its initial state under the action of the elastic pull rope 25, and at the same time, the downward pulling force of the detection plate 23 disappears, and it returns to its initial state under the action of the third elastic member 242, that is, it is out of pressure contact with the concrete slab, and the humidity detection ends at this time.

[0031] The front middle position of the detection frame 21 is elastically slidably provided with a data transmission male port 216, the transmission male port 211 is connected to the controller in the spray device 4, and a data transmission female port 222 is provided at the corresponding position of the sliding frame 22, and the humidity detection head 231 is connected to the data transmission female port 222 through a line. When the detection frame 21 is close to the sliding frame 22, the data transmission female port 222 can be sleeved on the data transmission male port 216, so that the data detected by the humidity detection head 231 is transmitted to the controller, and at the same time, the left and right sides of the detection frame 21 are connected. A first inclined block 214 is provided on the side, and a lifting rod 241 is provided on the carrier block 24. After the data transmission female port 222 can be sleeved on the data transmission male port 216, the lifting rod 241 contacts the first inclined block 214. At this time, the carrier plate 13 continues to drive the detection plate 23 to move forward, so the lifting rod 241 moves upward along the first inclined block 214, and the carrier block 24 moves upward, and the lower end is separated from the contact with the carrier plate 13. At the moment of separation, the forward power of the detection plate 23 disappears, and it returns to its initial state under the action of the first elastic member 215.

[0032] The spray device 4 is located behind the detection device 2. The spray device 4 includes a water tank 41, a spray pipe 42, a water pump 43 and a controller. The controller controls the start and speed of the water pump 43. The water pump 43 is arranged in the water tank 41, and the water outlet is connected to the spray pipe 42.

[0033] When the detection plate 23 returns to its initial state, the concrete slab that has been inspected continues to move forward, and a detection switch is provided on the spray pipe 42. When the concrete slab moves under the spray pipe 42, the detection switch transmits a signal to the controller, and the controller controls the water pump 43 to start and supply water to the spray pipe 42. At the same time, the humidity of the concrete slab is detected by the humidity detection head 231, and the speed of the water pump 43 is controlled to spray a certain amount of water to make the humidity of the concrete slab consistent after spraying.

[0034] When the detection plate 23 returns to its initial state, the carrier plate 13 on the subsequent sliding base 11 touches the lower end of the carrier block 24 again, thereby driving the detection plate 23 to move with the carrier plate 13, and performing the humidity detection of the current concrete slab again. This cycle repeats, and the spraying device 4 sprays the concrete slab according to the detected humidity conditions, so that the humidity conditions of the concrete slab after spraying are consistent.

[0035] The water pump 43 is provided with a first water outlet 431 and a second water outlet 432. The first water outlet 431 is connected to the spray pipe 42 through a pipeline, and the second water outlet 432 is connected to the evaporation tray 31. The controller can control the opening and closing of the first water outlet 431 and the second water outlet 432 respectively, so as to replenish water to the evaporation tray 31.

[0036] The front and rear surfaces of the threaded sleeve 111 are both provided with pressure-touch switches. When the sliding base 11 moves to the front end, that is, after all the concrete slabs on the sliding base 11 have been sprayed, the threaded sleeve 111 presses against the limit block at the front end of the threaded screw 122, thereby pressing the pressure-touch switch. At this time, the pressure-touch switch controls the driving motor 121 to reverse, so that the sliding base 11 moves backward, and at the same time, the electromagnetic block 243 is energized, so that the electromagnetic block 243 generates a magnetic attraction, which is adsorbed upward on the lower bottom surface of the detection plate 23. As a result, the carrier block 24 slides upward, with its bottom surface higher than the upper surface of the carrier plate 13, and at the same time compresses the third elastic member 242. Therefore, during the backward movement of the sliding base 11, the carrier plate 13 will not come into contact with the carrier block 24. When it moves to the initial position, the threaded sleeve 111 presses on the drive motor 121, thereby pressing the pressure switch, thereby controlling the drive motor 121 to stop rotating, and at the same time controlling the electromagnetic block 243 to cut off power, and the carrier block 24 returns to its initial position under the action of the third elastic member 242.

[0037] During the reversal of the drive motor 121, the controller controls the first water outlet 431 on the water pump 43 to close and the second water outlet 432 to open. At the same time, the water pump 43 starts to rotate, thereby supplying water to the evaporation plate 31, so that the float 32 floats upward. When the float 32 presses the pressure switch at the upper end of the sliding groove 311, the water pump 43 is controlled to stop rotating. At the same time, the first water outlet 431 is opened and the second water outlet 432 is closed. At this point, everything returns to the initial state. After the water in the evaporation plate 31 is evaporated, the equipment is turned on again to spray the concrete slab, so that the spraying operation is automatically performed according to the weather conditions. At the same time, the concrete slabs are accurately sprayed according to the humidity conditions of each concrete slab, so that the humidity of each concrete slab is consistent, ensuring the stability of the quality of large quantities of concrete slabs.

[0038] Its working principle or usage is as follows:

[0039] In the initial state, a fixed amount of water is set in the evaporation pan 31 and is exposed to the air. The time required for the water in the evaporation pan 31 to evaporate completely varies under different weather conditions. A pressure-touch switch is provided at the lower end of the evaporation pan 31. When the water in the evaporation pan 31 is completely evaporated, the floating block 32 presses on the pressure-touch switch to control the drive motor 121 to turn on. Since the initial amount of water is fixed, the device can be turned on according to the real-time evaporation amount.

[0040] The driving motor 121 is started, driving the sliding base 11 to move forward at a constant speed. During the forward movement, the carrying plate 13 contacts the lower end of the carrying block 24, driving the detection plate 23 to move backward. The detection plate 23 moves backward, driving the sliding frame 22 to move together, and driving the magnetic block 213 to move backward together. During the movement, one end of the elastic pull rope 25 is moved, thereby pulling the upper end connecting plate of the second guide column 232 downward, causing the detection plate 23 to move downward, and the humidity detection head 231 is pressed against the concrete slab. The humidity detection head 231 performs humidity detection on the concrete slab. After moving one end distance, the elastic pull rope 25 reaches the maximum stretching length and can no longer be stretched. Therefore, the magnetic block 213 and the magnetic ring 221 are misaligned, and the magnetic connection disappears. The magnetic block 213 returns to its original state under the action of the elastic pull rope 25. At the same time, the downward pulling force of the detection plate 23 disappears, and under the action of the third elastic member 242, it returns to its original state, that is, it is out of pressure contact with the concrete slab, and the humidity detection is ended at this time.

[0041] When the detection plate 23 returns to its initial state, the concrete slab that has been inspected continues to move forward, and a detection switch is provided on the spray pipe 42. When the concrete slab moves under the spray pipe 42, the detection switch transmits a signal to the controller, and the controller controls the water pump 43 to start and supply water to the spray pipe 42. At the same time, the humidity of this concrete slab is detected by the humidity detection head 231, and the speed of the water pump 43 is controlled to spray a certain amount of water. When the detection plate 23 returns to its initial state, the carrier plate 13 on the subsequent sliding base 11 touches the lower end of the carrier block 24 again, and drives the detection plate 23 to move with the carrier plate 13 again, and performs the humidity detection of the current concrete slab again. This reciprocating process, the spraying device 4 sprays the concrete slab according to the detected humidity, so that the humidity of the concrete slab after spraying is consistent.

[0042] When the sliding base 11 moves to the front end, that is, after all the concrete slabs on the sliding base 11 have been sprayed, the threaded sleeve 111 presses on the limit block at the front end of the threaded screw 122, thereby pressing the pressure touch switch. At this time, the pressure touch switch controls the drive motor 121 to reverse, causing the sliding base 11 to move backward, and at the same time energizes the electromagnetic block 243, causing the electromagnetic block 243 to generate magnetic attraction and adsorb upward on the lower bottom surface of the detection plate 23, thereby causing the carrier block 24 to slide upward, and its bottom surface is higher than the upper surface of the carrier plate 13, while compressing the third elastic member 242. Therefore, during the backward movement of the sliding base 11, the carrier plate 13 will not contact the carrier block 24. When moving to the initial position, the threaded sleeve 111 presses on the drive motor 121, thereby pressing the pressure touch switch, thereby controlling the drive motor 121 to stop rotating, and at the same time controlling the electromagnetic block 243 to be powered off, and the carrier block 24 returns to its initial position under the action of the third elastic member 242.

[0043] During the reversal of the drive motor 121, the controller controls the first water outlet 431 on the water pump 43 to close and the second water outlet 432 to open. At the same time, the water pump 43 starts to rotate, thereby supplying water to the evaporation plate 31, so that the float 32 floats upward. When the float 32 presses the pressure switch at the upper end of the sliding groove 311, the water pump 43 is controlled to stop rotating. At the same time, the first water outlet 431 is opened and the second water outlet 432 is closed. At this point, everything returns to the initial state. After the water in the evaporation plate 31 is evaporated, the equipment is turned on again to spray the concrete slab, so that the spraying operation is automatically performed according to the weather conditions. At the same time, the concrete slabs are accurately sprayed according to the humidity conditions of each concrete slab, so that the humidity of each concrete slab is consistent, ensuring the stability of the quality of large quantities of concrete slabs.

[0044] The above embodiments are only used to illustrate the technical solutions of the present invention, rather than to limit the same. Although the present invention has been described in detail with reference to the aforementioned embodiments, those skilled in the art should understand that they can still modify the technical solutions described in the aforementioned embodiments, or make equivalent replacements for some of the technical features therein. However, these modifications or replacements do not deviate the essence of the corresponding technical solutions from the spirit and scope of the technical solutions of the various embodiments of the present invention.

Claims

1. Basalt fiber concrete panel humidity testing device, characterized by: The base (1) comprises a sliding base (11) and a driving device (12) provided on the base (1), a carrier plate (13) being evenly provided on the sliding base (11), a concrete slab being provided on the carrier plate (13), and the driving device (12) being capable of driving the sliding base (11) to move forward at a uniform speed; The base (1) is also provided with a detection device (2) and a trigger device (3). The detection device (2) includes a detection frame (21), a sliding frame (22) and a detection plate (23). The detection frame (21) is provided on the moving track of the sliding base (11). The trigger device (3) includes an evaporation plate (31). The evaporation plate (31) is provided on the detection frame (21). A sliding groove (311) is further provided in the evaporation plate (31). A floating block (32) is slidably provided in the sliding groove (311). Pressure touch switches are provided at both upper and lower ends of the sliding groove (311). The floating block (32) presses the pressure touch switch below to energize the driving device (12), thereby driving the sliding base (11) to start moving. The detection frame (21) is provided with a first guide post (211), the sliding frame (22) is elastically guided and slidably provided on the first guide post (211), the bottom surface of the detection plate (23) is provided with a humidity detection head (231), the upper end surface is provided with a second guide post (232), and the detection plate (23) is elastically slidably provided on the sliding frame (22) through the second guide post (232), and a carrier block (24) is also elastically slidably provided on the detection plate (23), and the carrier plate (13) can contact the carrier block (24) when passing by, thereby driving the detection plate (23) to move along with the carrier plate (13); A first cavity (212) is provided in the first guide post (211), a magnetic block (213) is slidably provided in the first cavity (212), and the rear end of the magnetic block (213) is connected to one end of an elastic pull rope (25), and the other end extends out of the first guide post (211) and is provided on the upper end connecting plate of the second guide post (232), and a magnetic ring (221) is provided in the sliding frame (22). The movement of the detection plate (23) drives the sliding frame (22) to move together, thereby driving the magnetic block (213) to move together, tightening the elastic pull rope (25) to move the detection plate (23) downward, and the humidity detection head (231) is pressed against the concrete slab. After moving a certain distance, the elastic pull rope (25) reaches a maximum stretching length, so that the magnetic block (213) no longer follows the magnetic ring (221) to move, and the magnetic connection between the two disappears, and the downward pulling force of the detection plate (23) disappears, and the detection plate (23) returns to its initial state.

2. The basalt fiber concrete panel humidity testing device according to claim 1, characterized in that: The detection frame (21) is provided with a first inclined block (214), and the carrier block (24) is provided with a lifting rod (241). When the carrier plate (13) drives the detection plate (23) to move closer to the detection frame (21), the lifting rod (241) contacts the first inclined block (214), thereby moving upward along the first inclined block (214), and the contact between the lower end of the carrier block (24) and the carrier plate (13) is eliminated, and the sliding frame (22) drives the detection plate (23) to move forward and return to the initial state.

3. The basalt fiber concrete panel humidity testing device according to claim 2, characterized in that: The detection frame (21) is provided with a spray device (4), the spray device (4) comprising a water storage tank (41), a spray pipe (42), a water pump (43) and a controller, the controller controlling the start and rotation speed of the water pump (43), the water pump (43) being arranged in the water storage tank (41), and the water outlet being connected to the spray pipe (42), and the spray device (4) being located behind the detection device (2), and the spray pipe (42) being capable of spraying the surface of the passing concrete slab.

4. The basalt fiber concrete panel humidity testing device according to claim 3, characterized in that: A data transmission male port (216) is elastically slidably provided on the detection frame (21), and a data transmission female port (222) is provided on the sliding frame (22). When the lifting rod (241) contacts the first inclined block (214), the data transmission male port (216) is first connected to the data transmission female port (222), thereby transmitting the value detected by the humidity detection head (231) to the controller to control the speed of the water pump (43).

5. The basalt fiber concrete panel humidity testing device according to claim 1, characterized in that: Two first guide posts (211) are provided, and a first elastic member (215) is sleeved on the first guide post (211), and two ends of the first guide post (215) respectively contact the detection frame (21) and the sliding frame (22). Two second guide posts (232) are provided, and a second elastic member (233) is sleeved on the second guide post (232), and two ends of the second guide post (232) respectively contact the sliding frame (22) and the upper end connecting plate of the second guide post (232).

6. The basalt fiber concrete panel humidity testing device according to claim 4, characterized in that: The water pump (43) is provided with a first water outlet (431) and a second water outlet (432); the first water outlet (431) is connected to the spray pipe (42) via a pipeline, and the second water outlet (432) is connected to the evaporation tray (31); a controller can respectively control the opening and closing of the first water outlet (431) and the second water outlet (432), thereby replenishing water to the evaporation tray (31).

7. A method for inspecting humidity of basalt fiber reinforced concrete panels using the device for inspecting humidity of basalt fiber reinforced concrete panels according to claim 4, characterized in that: S1: The water in the evaporation plate (31) evaporates and the driving device (12) drives the sliding base (11) to move forward at a constant speed; S2: The carrier plate (13) drives the detection plate (23) to move together, and at the same time completes the moisture detection of the concrete slab above the carrier plate (13). After the detection is completed, the data transmission male port (216) is first connected to the data transmission female port (222), and the data is transmitted to the controller of the spray device (4). At the same time, the carrier plate (13) and the detection plate (23) are separated from each other, and the detection plate (23) returns to the initial state; S3: After the carrier plate (13) enters the spraying area, the controller sprays the concrete plate in a quantitative manner according to the data measured by the humidity detection head (231) to keep the humidity within a certain range.

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