Rapid glue fixing device for ground pressure probe

Abstract

The invention relates to the technical field of industrial equipment, in particular to a quick glue fixing device for a ground pressure probe. Comprising a cabinet body which is internally provided with a heating bin; the connecting unit is configured to be detachably connected with a ground pressure probe and suspend the ground pressure probe in the heating bin; the driving unit is in transmission connection with the connecting unit and is used for driving the ground pressure probe to rotate around the axial direction; the hot air circulation unit comprises a heating module, an air blower and a pipeline, the heating module and the heating bin form a closed air duct through the pipeline, and hot air flow enters from the bottom of the heating bin, is discharged from the top and circularly flows back to the heating module; the controller is in signal connection with the driving unit, the heating module and the air blower and is used for dynamically adjusting the rotating speed of the ground pressure probe and the temperature of the heating bin based on preset parameters, uniform solidification of the glue solution is achieved through cooperative control of the rotating speed and the temperature, and the problem that the thickness of the glue solution is not uniform due to gravity flowing is effectively solved.

Description

Technical Field

[0001] The invention relates to the technical field of industrial equipment, in particular to a rapid glue fixing device for a ground pressure probe. Background Art

[0002] In the field of geological exploration and geotechnical engineering, the surface glue curing process of the ground pressure probe is a key link to ensure its measurement accuracy. The traditional method relies on artificial glue coating and natural drying or simple oven heating. There are problems such as uneven coating thickness due to gravity flow of glue and uncontrollable temperature and humidity of the curing environment. For example, the bottom of the cylindrical probe is prone to accumulation of glue to form a tumor-like protrusion, while the amount of glue on the top is insufficient, which directly affects the sensing performance and durability of the probe.

[0003] In order to address this drawback, a rapid glue fixing device for a ground pressure probe is urgently needed to meet the needs of uniform and rapid glue fixing of the ground pressure probe. Summary of the invention

[0004] The purpose of the present invention is to ensure that the surface of the ground pressure probe can be evenly and quickly coated with glue and solidified. In order to achieve the above purpose, the present invention provides a ground pressure probe fast glue solidification device, comprising: The cabinet has a heating compartment inside; A connecting unit, configured to detachably connect the ground pressure probe and suspend it in the heating chamber; A driving unit, which is drivingly connected to the connecting unit and is used to drive the ground pressure probe to rotate around its axial direction; The hot air circulation unit includes a heating module, a blower and a pipe. The heating module forms a closed air duct with the heating chamber through the pipe, so that the hot air flows into the heating chamber from the bottom, is discharged from the top and circulates back to the heating module; The controller is connected to the drive unit, heating module and blower signal, and is used to dynamically adjust the rotation speed of the ground pressure probe and the temperature of the heating chamber based on preset parameters, so as to achieve uniform curing of the glue through the coordinated control of the rotation speed and temperature.

[0005] Preferably, the connecting unit comprises: The plug-in assembly comprises an insert card and a baffle, wherein the insert card is interference-fitted with the insert hole at the end of the ground pressure probe, and the baffle is fixed to an end of the insert card away from the ground pressure probe; The cable channel includes a wire barrel and a connecting tube. The wire barrel passes through the side wall of the heating chamber and is rotatably connected to the heating chamber. A docking hole is provided at one end of the wire barrel and a detachable end cap is provided at the other end. The connecting tube is fixed on the baffle and communicated with the through hole of the baffle. One end of the connecting tube away from the baffle is fixedly connected to the wire drum and communicated with the docking hole. The plug-in assembly, the cable channel and the through hole are coaxially arranged.

[0006] Preferably, a plurality of connection units are provided on the vertical wall of the heating chamber, and the plurality of connection units are symmetrically divided into two groups.

[0007] Preferably, the driving unit comprises: A first pulley is sleeved on one end of the bobbin located outside the heating chamber; A linkage belt connects a plurality of first pulleys in the same group; a third pulley coaxially disposed on an outer surface of a bobbin in each set of connecting units; A driven belt connecting two third pulleys; The motor is fixed to the bottom of the cabinet and has a second pulley at its output end; The driven pulley is coaxially mounted on the outer surface of the third pulley close to the motor arrangement position and is connected to the second pulley through a transmission belt.

[0008] Preferably, the thermal cycle unit comprises: The heating module comprises a heat source chamber and a plurality of electric heating wires arranged circumferentially in the heat source chamber; The blower is fixed below the heat source bin, and its air outlet is connected to the heat source bin; The air storage chamber is connected to the heating chamber through a pipeline, and the air inlet end of the blower is connected to the air storage chamber; The filter plate is arranged at the air inlet of the heating chamber and is used to disperse the air flow and filter impurities in the hot air flow.

[0009] Preferably, a temperature sensor is provided in the heating chamber near the air outlet, and the temperature sensor is electrically connected to the controller for real-time monitoring of the temperature data in the heating chamber and feeding back to the controller. The controller dynamically adjusts the power of the heating module and the speed of the blower based on the temperature data to maintain a constant temperature in the heating chamber.

[0010] Preferably, a panel is rotatably mounted on the front side of the cabinet, and a transparent glass is fixed at the center of the panel for observing the curing state of the internal pressure probe in the heating chamber; A plurality of rear doors are rotatably mounted on the rear side of the cabinet for inspecting the drive unit and the hot air circulation system.

[0011] Preferably, a touch screen is additionally provided on the front side of the cabinet, and the touch screen is electrically connected to the controller for inputting or adjusting preset temperature, rotation speed and curing time parameters.

[0012] The beneficial effects of the present invention are: 1. The driving unit of the present invention enables the geopressure probe to be glued to rotate around the axis at a certain speed. After the surface coating of the geopressure probe is uniform, the geopressure probe to be glued to rotate around the axis of the geopressure probe under the action of the driving unit, which weakens the flow of glue under the action of gravity and makes the surface coating uneven; 2. The hot air circulation unit of the present invention allows the gas in the heating chamber to circulate continuously, the temperature in the heating chamber is the same everywhere, and the ground pressure probes at different positions are in the same temperature environment, thereby avoiding the difference in the solidification speed of the liquid glue on the surface of the ground pressure probes at different positions due to the difference in temperature at different positions in the heating chamber; 3. The present invention installs a temperature sensor at the gas pipe outlet, which can synchronously measure the temperature in the heating chamber and transmit the data to the controller. According to the heating chamber temperature value initially set in the touch screen, the temperature of the heating wire and the speed of the blower are adjusted to keep the temperature of the heating chamber at the initially set value, thereby avoiding the temperature of the heating chamber constantly rising due to the continuous generation of high heat by the heating wire, thereby causing certain damage to the paint on the surface of the ground pressure probe. BRIEF DESCRIPTION OF THE DRAWINGS

[0013] Figure 1 It is a front view of the cabinet of the present invention.

[0014] Figure 2 It is the rear view of the cabinet of the present invention.

[0015] Figure 3 This is a schematic diagram of the internal structure of the heating chamber of the present invention.

[0016] Figure 4 It is a schematic diagram of the internal structure of the back side of the cabinet of the present invention.

[0017] Figure 5 It is a schematic diagram of the assembly position of the filter plate and the heating chamber of the present invention.

[0018] Figure 6 It is a schematic diagram of the connecting unit structure of the present invention.

[0019] Figure 7 It is an exploded view of the connection unit structure of the present invention.

[0020] Figure 8 It is a schematic diagram of the structure of the driving unit of the present invention.

[0021] Fig. 9 It is a schematic diagram of the hot air circulation structure of the present invention.

[0022] Fig.10 It is an exploded view of the hot air circulation structure of the present invention.

[0023] Fig.11 It is a schematic diagram of the structure of the connection end of the ground pressure probe of the present invention.

[0024] Fig.12 It is a schematic diagram of the docking structure between the ground pressure probe and the connecting unit of the present invention.

[0025] Fig.13 It is a schematic diagram of the structure of the blower of the present invention.

[0026] In the figure: 1. cabinet; 2. ground pressure probe; 3. blower; 4. pipeline; 5. heating chamber; 6. card; 7. baffle; 8. socket; 9. bobbin; 10. connecting pipe; 11. docking hole; 12. end cover; 13. through hole; 15. first pulley; 16. motor; 17. second pulley; 18. transmission belt; 19. heat source chamber; 20. heating wire; 21. air storage chamber; 22. filter plate; 23. linkage belt; 24. third pulley; 25. driven belt; 26. driven pulley; 27. panel; 28. transparent glass; 29. ​​rear side door; 30. touch screen; 31. temperature sensor; 32. controller. DETAILED DESCRIPTION

[0027] The present invention is described in detail below in conjunction with specific embodiments. The following embodiments will help those skilled in the art to further understand the present invention, but are not intended to limit the present invention in any form. It should be noted that, for those of ordinary skill in the art, several changes and improvements can also be made without departing from the concept of the present invention. These all belong to the protection scope of the present invention.

[0028] like Figure 1-5 As shown, the present invention provides a rapid glue solidification device for a geopressure probe 2, comprising: a cabinet 1, in which a heating chamber 5 is provided; a connecting unit, configured to be detachably connected to the geopressure probe 2 and to suspend it in the heating chamber 5; a driving unit, which is transmission-connected to the connecting unit and is used to drive the geopressure probe 2 to rotate around its axial direction; a hot air circulation unit, comprising a heating module, a blower 3 and a pipe 4, wherein the heating module forms a closed air duct with the heating chamber 5 through the pipe 4, so that the hot air flow enters from the bottom of the heating chamber 5, is discharged from the top and circulates back to the heating module; a controller 32, which is signal-connected to the driving unit, the heating module and the blower 3, and is used to dynamically adjust the rotation speed of the geopressure probe 2 and the temperature of the heating chamber 5 based on preset parameters, so as to realize uniform curing of the glue liquid through the coordinated control of the rotation speed and the temperature.

[0029] The geopressure probe 2 is installed in the heating chamber 5 through the connecting unit to ensure that the geopressure probe 2 is suspended and connected to the driving unit. The hot air circulation unit is started so that the hot air in the heating module generates a hot air flow and is blown into the bottom of the heating chamber 5 through the blower 3. The hot air flows from bottom to top through the surface of the entire geopressure probe 2 under the drive of the blower 3, and then is discharged from the top of the heating chamber 5, and flows back to the heating module through the pipe 4 for circulation heating. During the heating process, the driving unit drives the geopressure probe 2 to rotate around its axis. The controller 32 dynamically adjusts the rotation speed of the driving unit and the power of the heating module according to the preset parameters, so that the probe is evenly heated during the rotation process, and the glue is evenly distributed and quickly solidified under the action of centrifugal force and hot air.

[0030] Optionally, a temperature sensor 31 is provided in the heating chamber 5 near the air outlet, and the temperature sensor 31 is electrically connected to the controller 32 for real-time monitoring of the temperature data in the heating chamber 5 and feeding back to the controller 32. The controller 32 dynamically adjusts the power of the heating module and the speed of the blower 3 based on the temperature data to maintain a constant temperature in the heating chamber 5.

[0031] The whole glue solidification process requires a certain amount of waiting time. The temperature sensor 31 monitors the temperature in the heating chamber 5 in real time, so that the controller 32 can automatically adjust the power of the heating module and the speed of the blower 3 according to the monitored temperature to ensure the constant temperature in the heating chamber 5, so that the glue curing state of a single or multiple ground pressure probes 2 in the heating chamber 5 can be unified, and the disadvantage of manual real-time supervision is eliminated, and the uneven curing effect caused by the lag of manual mid-course parameter correction is avoided. At the same time, in order to improve the convenience of operation, a touch screen 30 can be added on the front side of the cabinet 1, and the touch screen 30 is electrically connected to the controller 32 for inputting or adjusting the preset temperature, speed and curing time parameters. Before curing, the curing parameters can be set manually through the touch screen 30.

[0032] Furthermore, a panel 27 can be rotatably installed on the front side of the cabinet 1, and a transparent glass 28 is fixed in the center of the panel 27 for observing the curing state of the ground pressure probe 2 in the heating chamber 5; a plurality of rear side doors 29 are rotatably installed on the rear side of the cabinet 1 for inspecting the drive unit and the hot air circulation system. Before solidifying the glue, the panel 27 is flipped open to facilitate plugging the connecting end of the ground pressure probe 2 into the connecting unit, and then the panel 27 is flipped closed. The cover of the panel 27 allows the entire heating chamber 5 to be sealed to avoid heat loss caused by leakage of hot air. After the panel 27 is closed, the outside world can observe the internal situation of the heating chamber 5 through the transparent glass 28 fixedly installed in the center of the panel 27, so as to adjust the curing parameters and process according to the observed situation.

[0033] When the drive unit or the hot air circulation unit needs to be inspected or maintained, the rear door 29 on the back of the cabinet 1 can be opened to facilitate the operation of the operator. After the inspection is completed, the rear door 29 is closed to prevent the drive unit or the hot air circulation unit from being accidentally touched by external debris or personnel, causing unnecessary damage to the equipment or personnel. At the same time, because the drive unit and the hot air circulation unit will inevitably generate heat during long-term operation, a through groove can be opened on the rear side panel to allow the air inside and outside the rear door 29 to circulate, and the drive unit and the hot air circulation unit can dissipate heat in time to extend the service life of the equipment.

[0034] like Figure 6-Figure 7 As shown, as the prior art, the connection end of the geopressure probe 2 is provided with a socket 8 and is connected to an electric wire. In order to simplify the assembly method of the geopressure probe 2 and the connection unit and further improve the efficiency of solid glue, optionally, the connection unit includes: a plug-in component, including a plug-in card 6 and a baffle 7, the plug-in card 6 is interference fit with the socket 8 at the end of the geopressure probe 2, and the baffle 7 is fixed to the end of the plug-in card 6 away from the geopressure probe 2; a cable channel, including a wire drum 9 and a connecting tube 10, the wire drum 9 passes through the side wall of the heating chamber 5 and is rotatably connected to the heating chamber 5, one end of the wire drum 9 is provided with a docking hole 11, and the other end is provided with a detachable end cover 12; the connecting tube 10 is fixed on the baffle 7 and is connected to the through hole 13 of the baffle 7, and the end of the connecting tube 10 away from the baffle 7 is fixedly connected to the wire drum 9 and is connected to the docking hole 11; the plug-in component, the cable channel and the through hole 13 are coaxially arranged.

[0035] like Figure 11-Figure 12 As shown, specifically, the plug-in card 6 in the connection unit is inserted into the socket 8 of the ground pressure probe 2 to form an interference fit, so that the assembly between the ground pressure probe 2 and the connection unit can be easily achieved. However, the wire extending from the connection end of the ground pressure probe 2 will interfere with the rotation of the ground pressure probe 2 or the connection unit, and the rubber insulation layer outside the wire is not suitable for being exposed to the heating environment of the heating chamber 5 for too long. Therefore, before the socket on the ground pressure probe 2 is docked with the plug-in card 6 in the connection unit, the wire on the ground pressure probe 2 needs to be inserted into the through hole 13 on the baffle 7, and because the through hole 13 is connected to the connecting tube 10 and the docking hole 11, it is only necessary to continuously deliver the wire, and the wire with a certain length will be mostly bent and stored in the internal cavity of the wire barrel 9 due to the obstruction of the end cover 12. The entire wire delivery process continues until the end of the ground pressure probe 2 is about to contact the end of the plug-in card 6 and stops. At this time, the plug-in card 6 is inserted into the socket 8 until the end of the socket 8 is against the baffle, and the rapid assembly task of the ground pressure probe 2 and the connection unit can be completed.

[0036] Thus, through the structural design of the special connection unit, the body of the ground pressure probe 2 can be easily and firmly assembled on the connection unit, and the wires attached to the ground pressure probe 2 can be stored, avoiding interference of the wires on the rotation of the ground pressure probe 2 around the axis. In order to further avoid the heat transfer of the wire barrel 9 and the connection tube 10 itself and the influence of the wires inside, heat insulation materials can be attached to the outside of the wire barrel 9 and the connection tube 10.

[0037] like Figure 8 As shown, multiple connection units can be arranged on the vertical wall of the heating chamber 5 so that the heating chamber 5 can simultaneously perform the gluing task on multiple geopressure probes 2, thereby improving the gluing efficiency. At the same time, in order to ensure that the gluing process and effect of multiple geopressure probes 2 can be consistent, the multiple connection units can be divided into two groups and symmetrically arranged on the wall of the heating chamber 5 with the filter plate 22 as the center. The arrangement shape of each group of connection units on the wall of the heating chamber 5 can be as follows: Figure 8 The pentagon shown may also be a hexagon, a heptagon, etc., to ensure that there is enough gap between two adjacent connection units for hot air to pass through, thereby ensuring the uniform heating of the ground pressure probe 2 on each connection unit.

[0038] Furthermore, in order to facilitate the simultaneous control of the rotational speeds of multiple connection units so that their rotational speeds can remain consistent, a driving unit can be provided including: a first pulley 15, sleeved on one end of the bobbin 9 located outside the heating chamber 5; a linkage belt 23, connecting multiple first pulleys 15 in the same group; a third pulley 24, coaxially arranged on the outer surface of a bobbin 9 in each group of connection units; a driven belt 25, connecting two third pulleys 24; a driven pulley 26, coaxially installed on the outer surface of the third pulley 24 near the arrangement position of the motor 16, and connected to the second pulley 17 through a transmission belt 18; the motor 16 is fixed to the bottom of the cabinet 1, and a second pulley 17 is provided at its output end; a transmission belt 18, connecting the second pulley 17 and the third pulley 24.

[0039] Specifically, when the second pulley 17 rotates under the drive of the motor 16, the driven pulley 26 will be driven to rotate synchronously through the transmission belt 18; because the driven pulley 26, the third pulley 24 and the first pulley 15 are coaxially installed on the outside of the same bobbin 9, the rotating driven pulley 26 will drive the third pulley 24, the first pulley 15 and the bobbin 9 to rotate synchronously; at this time, the rotating third pulley 24 will transmit the rotational torque to the third pulley 24 in another group of connection units through the driven belt 25. Multiple first pulleys 15 in each group of connection units are connected by the linkage belt 23. On this basis, each third pulley 24 can drive one first pulley 15 in each group to rotate through coaxial transmission, and the rotation of one first pulley 15 can drive the entire group of first pulleys 15 to rotate through the linkage belt 23. Therefore, through the planning of the above-mentioned belt transmission path, the speed control of the first pulley 15, the second pulley 17, the third pulley 24, and the driven pulley 26, which are the pulleys of the same size and size, can be synchronized and consistent, further avoiding the inconsistent solid glue effect between multiple ground pressure probes 2 caused by inconsistent speed.

[0040] like Figure 9-10 As shown, the heat circulation unit includes: a heating module, including a heat source bin 19 and a plurality of electric heating wires 20 circumferentially arrayed in the heat source bin 19; a blower 3, fixed below the heat source bin 19, and an air outlet end thereof is connected to the heat source bin 19; an air storage chamber 21, connected to the heating bin 5 through a pipe 4, and an air inlet end of the blower 3 is connected to the air storage chamber 21; a filter plate 22, arranged at the air inlet hole of the heating bin 5, for dispersing the airflow and filtering impurities in the hot airflow.

[0041] Specifically, the electric heating wire 20 converts electrical energy into thermal energy to heat the air in the entire heat source bin 19, and the blower 3 below it blows the hot air in the heat source bin 19 into the heating bin 5 from bottom to top, providing the heating bin 5 with the heat required for the geopressure probe 2 to solidify. While the blower 3 blows air into the heat source bin 19, the negative pressure generated below it will also continuously suck the air in the air storage chamber 21, so that when the hot air that has completed the heating task rises to the top of the heating bin 5, it is sucked into the air storage chamber 21 by the blower 3 along the pipe 4 and continues to blow to the electric heating wire 20 to complete reheating. Thus, a complete closed loop of cyclic heating is formed by the sequential connection of the pipe 4, the air storage chamber 21, the blower 3, the heat source bin 19, and the heating bin 5, so that the hot air can minimize the temperature difference at different positions in the heating bin 5 during such cyclic heating, laying a foundation for the consistency of the solidification effect of multiple geopressure probes 2 in the heating bin 5.

[0042] At the same time, in order to ensure heating efficiency, a plurality of heating wires 20 are arranged in a row in the heat source compartment 19 to expand the contact heat exchange area between the air and the heating wires 20 to ensure stable output of heat energy during the rapid circulation of hot air.

[0043] Before the hot air in the heat source bin 19 enters the heating bin 5, it needs to be filtered by the filter plate 22. The existence of the filter plate 22, on the one hand, can use its own dense filter holes to disperse the hot air flow initially dispersed by the electric heating wire 20 distributed in the circumferential array below, so that the air flow output by the blower 3 can be dispersed into small air flows, so that the hot air can enter the heating bin 5 in a more diffused manner, further reducing the temperature difference at different positions of the heating bin 5, and ensuring the consistency of the solid glue of the geopressure probe 2; on the other hand, the filtering function of the filter plate 22 itself can prevent impurities in the air from being blown to the geopressure probe 2 by the blower 3, causing the glue layer of the geopressure probe 2 to be contaminated with impurities, and can also prevent impurities in the heating bin 5 from accidentally falling to the electric heating wire 20 or the blower 3 below the filter plate 22, causing damage to the electric heating wire 20 or the blower 3.

[0044] It should be noted that the above description is only an implementation mode of the present invention, and does not limit the patent scope of the present invention. Any equivalent structure or equivalent process transformation made by using the contents of the present invention specification and drawings, or directly or indirectly applied in other related technical fields, are also included in the patent protection scope of the present invention.

Claims

1. A quick glue fixing device for ground pressure probe, characterized in that: include: A cabinet (1) having a heating chamber (5) disposed therein; A connection unit configured to detachably connect the ground pressure probe (2) and suspend it in the heating chamber (5); A driving unit, drivingly connected to the connecting unit, and used for driving the ground pressure probe (2) to rotate around its axial direction; A hot air circulation unit, comprising a heating module, a blower (3) and a pipe (4), wherein the heating module forms a closed air duct with the heating chamber (5) through the pipe (4), so that the hot air flow enters from the bottom of the heating chamber (5), is discharged from the top and circulates back to the heating module; The controller (32) is connected to the drive unit, the heating module and the blower (3) by signals, and is used to dynamically adjust the rotation speed of the ground pressure probe (2) and the temperature of the heating chamber (5) based on preset parameters, so as to achieve uniform curing of the adhesive liquid through coordinated control of the rotation speed and temperature.

2. The rapid glue fixing device for ground pressure probe according to claim 1 is characterized in that: The connecting unit comprises: The plug-in assembly comprises an insert card (6) and a baffle (7), wherein the insert card (6) is interference-fitted with a plug hole (8) at the end of the ground pressure probe (2), and the baffle (7) is fixed to an end of the insert card (6) away from the ground pressure probe (2); A cable channel, comprising a wire barrel (9) and a connecting tube (10), wherein the wire barrel (9) passes through the side wall of the heating chamber (5) and is rotatably connected to the heating chamber (5), a docking hole (11) is provided at one end of the wire barrel, and a detachable end cap (12) is provided at the other end; The connecting tube (10) is fixed on the baffle (7) and communicates with the through hole (13) of the baffle (7); one end of the connecting tube (10) away from the baffle (7) is fixedly connected to the wire barrel (9) and communicates with the docking hole (11); The plug-in assembly, the cable channel and the through hole (13) are coaxially arranged.

3. The rapid glue fixing device for ground pressure probe according to claim 2 is characterized in that: A plurality of connection units are arranged on the vertical warehouse wall of the heating warehouse (5), and the plurality of connection units are symmetrically divided into two groups.

4. The rapid glue fixing device for ground pressure probe according to claim 3 is characterized in that: The driving unit comprises: A first pulley (15) is sleeved on one end of the bobbin (9) located outside the heating chamber (5); A linkage belt (23) connecting a plurality of first pulleys (15) in the same group; A third pulley (24) coaxially disposed on the outer surface of a bobbin (9) in each set of connecting units; A driven belt (25) connecting two third pulleys (24); A motor (16) is fixed to the bottom of the cabinet (1), and a second pulley (17) is provided at the output end of the motor; The driven pulley (26) is coaxially mounted on the outer surface of the third pulley (24) near the location where the motor (16) is arranged, and is connected to the second pulley (17) via a transmission belt (18).

5. The rapid glue fixing device for ground pressure probe according to claim 1 is characterized in that: The thermal cycle unit comprises: A heating module, comprising a heat source chamber (19) and a plurality of electric heating wires (20) arranged in a circumferential array in the heat source chamber (19); A blower (3) is fixed below the heat source bin (19), and an air outlet end thereof is in communication with the heat source bin (19); The air storage chamber (21) is connected to the heating chamber (5) via a pipeline (4), and the air inlet end of the blower (3) is connected to the air storage chamber (21); The filter plate (22) is arranged at the air inlet of the heating chamber (5) and is used to disperse the airflow and filter impurities in the hot airflow.

6. The rapid glue fixing device for ground pressure probe according to claim 1 is characterized in that: A temperature sensor (31) is provided in the heating chamber (5) near the air outlet. The temperature sensor (31) is electrically connected to the controller (32) and is used to monitor the temperature data in the heating chamber (5) in real time and feed back to the controller (32). The controller (32) dynamically adjusts the power of the heating module and the rotation speed of the blower (3) based on the temperature data to maintain a constant temperature in the heating chamber (5).

7. The rapid glue fixing device for ground pressure probe according to claim 1 is characterized in that: A panel (27) is rotatably mounted on the front side of the cabinet (1), and a transparent glass (28) is fixed at the center of the panel (27) for observing the curing state of the internal pressure probe (2) in the heating chamber (5); A plurality of rear doors (29) are rotatably mounted on the rear side of the cabinet (1) for inspecting the drive unit and the hot air circulation system.

8. The rapid glue fixing device for ground pressure probe according to claim 1 is characterized in that: A touch screen (30) is additionally provided on the front side of the cabinet (1); the touch screen (30) is electrically connected to a controller (32) and is used to input or adjust preset temperature, rotation speed and curing time parameters.

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