Gypsum mortar detection device and use method thereof

Abstract

The invention relates to the technical field of gypsum mortar, and discloses a gypsum mortar detection device and a use method thereof.The gypsum mortar detection device comprises a bottom supporting box, the top of the bottom supporting box is fixedly connected with an inner supporting rod, the top of the inner supporting rod is fixedly connected with a top supporting plate, and one side of the top supporting plate is fixedly connected with a side fixing plate; a plurality of vibration rods are used for vibration while the rotating stirring sleeve frame stirs the gypsum mortar, bubbles in the gypsum mortar are rapidly discharged, and the uniformity of raw materials in the gypsum mortar is improved; in the stirring process, the surface of the forming cylinder is continuously blown for cooling, and the situation that too many bubbles are generated in the stirring process due to too high ambient temperature is reduced; through portable temperature adjustment, the gypsum mortar curing speed is increased, when the forming cylinder ascends, the supporting platform descends synchronously, and manual feeding and discharging operation is not needed; and the cured raw materials are cleaned by using the rotating inner cleaning brush, so that the subsequent detection effect is improved.

Description

Technical Field

[0001] The present invention belongs to the technical field of gypsum mortar, and specifically relates to a gypsum mortar detection device and a use method thereof. Background Art

[0002] Gypsum mortar testing devices are various instruments and equipment used to test the performance of gypsum mortar. They play an important role in the production, quality control and application of gypsum mortar. Gypsum mortar testing devices are a combination of multiple equipment, which together constitute a gypsum mortar performance testing system. These devices play an important role in the production, quality control and application of gypsum mortar, and help ensure that the quality and performance of gypsum mortar meet relevant standards and requirements.

[0003] In the prior art, the patent application document "CN211741277U" discloses "a gypsum mortar material performance testing device"; it includes a base, and the upper end of the base is provided with two support blocks connected thereto in a transverse sliding manner, and corresponding connecting rods are horizontally fixed on the opposite surfaces between the support blocks, and a sleeve A is sleeved between the connecting rods and is threadedly connected thereto, and vertical rods A are respectively fixed vertically at the top two ends of the base, and a vertical rod B is provided at the upper end of the vertical rod A through a sleeve B, and the vertical rod A and the vertical rod B are respectively threadedly connected to the sleeve B, and a plurality of cross rods are respectively fixed horizontally between the vertical rod A and the vertical rod B, and four concrete slabs spliced ​​and fitted to each other are provided on the cross rods, and the concrete slabs at the lower end are fixedly connected to the support blocks, and the concrete slabs are slidably connected to the cross rods, and the detection efficiency is effectively improved by heating, and the gap is simulated by twisting the sleeves A and B to detect the filling property, deformation resistance and durability of the mortar, and the bonding strength of the mortar can be detected by the suction cup, so as to detect the material properties of the mortar more intuitively and conveniently.

[0004] The above-mentioned "" still has some disadvantages. For example, during the detection process of the existing gypsum mortar, if there are bubbles inside the gypsum mortar before adding materials and curing, it will affect the effect of subsequent detection. At the same time, the curing of the gypsum mortar before detection requires multiple steps, and each step requires manual operation, which is time-consuming and labor-intensive, increases the workload of the operator, and reduces the efficiency of gypsum mortar curing;

[0005] To this end, a gypsum mortar detection device and a method of using the same are proposed to solve the above-mentioned problems. Summary of the invention

[0006] In view of the above situation, in order to overcome the defects of the prior art, the present invention provides a gypsum mortar detection device and a method of using the same, which effectively solves the problem that during the detection process of gypsum mortar on the current market, if there are bubbles inside the gypsum mortar before adding materials and curing, it will affect the effect of subsequent detection. At the same time, the curing of the gypsum mortar before detection requires multiple steps, and each step requires manual operation, which is time-consuming and labor-intensive, increases the workload of the operator, and reduces the efficiency of gypsum mortar curing.

[0007] To achieve the above-mentioned purpose, the present invention provides the following technical scheme: a gypsum mortar detection device comprises a bottom support box, the top of the bottom support box is fixedly connected with an inner support rod, the top of the inner support rod is fixedly connected with a top support plate, one side of the top support plate is fixedly connected with a side fixing plate, one side of the side fixing plate is fixedly connected with an electric push rod, one side of the side fixing plate is provided with a side slide rail, one side of the side slide rail is provided with a connecting groove, the inner side of the connecting groove is slidably connected with the side sliding plate, one side of the side sliding plate is fixedly connected with a top sliding frame, one side of the top sliding frame is fixedly connected with a side socket plate, one side of the side socket plate is fixedly connected with a transmission motor, the output shaft of the transmission motor is fixedly connected with a bottom transmission rod, both sides of the bottom transmission rod are fixedly connected with a side control box, the inner side of the side control box is fixedly connected with a vibration motor, the output shaft of the vibration motor is fixedly connected with a vibration plate, the surface of the vibration plate is fixedly connected with a vibration rod, one side of the side control box is fixedly connected with a mixing sleeve frame, and the surface of the mixing sleeve frame is provided with a connecting hole.

[0008] Preferably: the surface of the bottom transmission rod is fixedly connected to a No. 1 bevel gear plate, one side of the No. 1 bevel gear plate is meshedly connected with a No. 2 bevel gear plate, one side of the No. 2 bevel gear plate is movably connected to a No. 1 bearing plate, one side of the No. 2 bevel gear plate is fixedly connected to a side transmission rod, one end of the side transmission rod is fixedly connected to a No. 3 bevel gear plate, one side of the No. 3 bevel gear plate is meshedly connected with a No. 4 bevel gear plate, the bottom of the No. 4 bevel gear plate is fixedly connected to a bottom connecting rod, the bottom of the bottom connecting rod is fixedly connected to a No. 5 bevel gear plate, one side of the No. 5 bevel gear plate is meshedly connected with a No. 6 bevel gear plate, one side of the No. 6 bevel gear plate is fixedly connected to a side connecting rod, and one side of the side connecting rod is fixedly connected to a fan.

[0009] Preferably: one side of the No. 3 bevel gear disk is movably connected to the No. 2 bearing disk, one side of the No. 2 bearing disk is movably connected to the side movable disk, one side of the side movable disk is fixedly connected to the side limit plate, the bottom of the side limit plate is movably connected to the No. 3 bearing disk, the bottom of the No. 3 bearing disk is movably connected to the top connecting rod, and the bottom of the top connecting rod is fixedly connected to the top of the No. 4 bevel gear disk.

[0010] Preferably: a protective bellows is fixedly connected to the top of the top support plate, a side protective frame is fixedly connected to one side of the protective bellows, a side limit frame is fixedly connected to one side of the protective bellows, a No. 4 bearing disk is movably connected to one side of the side limit frame, one side of the No. 4 bearing disk is movably connected to one side of the fan, a side clamping plate is fixedly connected to one side of the side clamping plate, a heating box is fixedly connected to one side of the heating box, a controller is fixedly connected to the inner side of the heating box, and an electric heating pipe is movably connected to one side of the heating box, and an air inlet is opened on one side of the heating box.

[0011] Preferably: one side of the bottom support box is fixedly connected to a bottom support plate, one side of the bottom support plate is fixedly connected to a servo motor, the output shaft of the servo motor is fixedly connected to a right connecting gear plate, the top of the right connecting gear plate is fixedly connected to a bottom fixing rod, the top of the bottom fixing rod is fixedly connected to a top threaded rod, one side of the side slide rail is slidably connected to a bottom sliding frame, one side of the bottom sliding frame is fixedly connected to a forming cylinder, one side of the forming cylinder is fixedly connected to a side connecting plate, a top threaded hole is opened on the surface of the side connecting plate, and the inner side of the top threaded hole is threadedly connected to the surface of the top threaded rod

[0012] Preferably: one side of the right connecting toothed disc is transmission-connected with a transmission toothed belt, one side of the transmission toothed belt is transmission-connected with a left connecting toothed disc, the top of the left connecting toothed disc is fixedly connected with a top transmission cylinder, the inner side of the top transmission cylinder is threadedly connected with a bottom threaded rod, and the top of the bottom threaded rod is fixedly connected with a support platform.

[0013] Preferably: the top of the bottom support box is fixedly connected to a bottom support frame, one side of the bottom support frame is slidably connected to a sliding side rail, the inner side of the sliding side rail is fixedly connected to a bottom transmission cylinder, and the inner side of the bottom transmission cylinder is fixedly connected to an inner cleaning brush.

[0014] Preferably: the bottom of the No. 5 bevel gear plate is fixedly connected with a bottom connecting column, the bottom of the bottom connecting column is fixedly connected with the No. 7 bevel gear plate, one side of the No. 7 bevel gear plate is meshed with the No. 8 bevel gear plate, one side of the No. 8 bevel gear plate is fixedly connected with a side support rod, one end of the side support rod is fixedly connected with the No. 9 bevel gear plate, one side of the No. 9 bevel gear plate is meshed with the No. 10 bevel gear plate, the bottom of the No. 10 bevel gear plate is fixedly connected with a right transmission tooth, the bottom of the right transmission tooth is fixedly connected with a side limit rod, the bottom of the side limit rod is movably connected with a No. 6 bearing disk, the bottom of the No. 7 bevel gear plate is fixedly connected with the bottom supporting rod, and the bottom of the bottom support rod is movably connected with the No. 5 bearing disk, the surface of the bottom transmission cylinder is fixedly connected with a sleeve outer gear ring, and one side of the sleeve outer gear ring is meshed with one side of the right transmission tooth.

[0015] Preferably, the top of the top transmission cylinder is fixedly connected with a top connecting ring, the bottom of the bottom support box is fixedly connected with a top sliding rail, and the bottom of the top sliding rail is slidably connected with the top of the top connecting ring.

[0016] A method for using a gypsum mortar detection device comprises the following steps:

[0017] S1. First, pour the gypsum mortar raw materials that need to be mixed into the forming cylinder. After pouring the gypsum mortar raw materials, start the electric push rod. After the electric push rod is started, it will drive the side sliding plate to descend. When the side sliding plate descends, it will slide along the inner side of the connecting groove. At the same time, during the process of the side sliding plate descending, it will synchronously drive the top sliding frame to move. During the movement of the top sliding frame, it will slide along the surface of the side slide rail. After lowering the top sliding frame, it will drive the side sleeve plate to be lowered synchronously. After the side sleeve plate is lowered, it will drive the transmission motor to descend. After the lowering, the transmission motor will drive the bottom transmission rod to move synchronously. At this time, the bottom transmission rod will be lowered into the forming cylinder. At this time, the transmission motor is started. After the transmission motor is started, it will drive the bottom transmission rod to rotate. The rotating bottom transmission rod will synchronously drive multiple mixing sleeves to move. During the stirring process of the multiple mixing sleeves, the vibration motor in the side control box is started, and the vibration motor is used to start the vibration plate to vibrate. The vibrating vibration plate will synchronously drive the vibration rod to vibrate;

[0018] S2, the bottom transmission rod will synchronously drive the No. 1 bevel gear plate to rotate during the rotation process, the rotating No. 1 bevel gear plate will synchronously drive the No. 2 bevel gear plate to rotate, the rotating No. 2 bevel gear plate will synchronously drive the side transmission rod to rotate, the synchronously rotating side transmission rod will drive the No. 3 bevel gear plate to rotate, the rotating No. 3 bevel gear plate will synchronously drive the No. 4 bevel gear plate to rotate, and when the No. 3 bevel gear plate rotates, it will be movably connected with the side movable plate through the No. 2 bearing plate, and by utilizing the fixation of the side movable plate and the side limit plate, the rotating No. 4 bevel gear plate will synchronously drive the bottom connecting rod to rotate, and the rotating bottom connecting rod will synchronously drive the No. 5 bevel gear plate to rotate, and the bottom connecting rod is retractable, and when the side sleeve plate adjusts the height, it will synchronously drive the bottom connecting rod to retract, the rotating No. 5 bevel gear plate will synchronously drive the No. 6 bevel gear plate to rotate, the rotating No. 6 bevel gear plate will synchronously drive the side connecting rod to rotate, and the side connecting rod will synchronously drive the guide fan to rotate, and when the guide fan rotates, it will be movably connected to one side of the side limit frame through the No. 4 bearing plate;

[0019] S3, after the stirring is completed, the side sleeve plate is raised, and the raised side sleeve plate will lift the stirring sleeve frame and move it out of the inner side of the forming cylinder. At this time, the electric heating tube is started by controlling the controller, and the electric heating tube will heat up after starting, and the temperature inside the heating box will continue to rise;

[0020] S4, start the servo motor, and drive the right connecting gear plate to rotate through the servo motor. The rotating right connecting gear plate will synchronously drive the transmission toothed belt to move. Through the transmission of the transmission toothed belt, the rotating right connecting gear plate will synchronously drive the left connecting gear plate to rotate. The rotating left connecting gear plate will synchronously drive the top transmission cylinder to rotate. The rotating top transmission cylinder will rotate along one side of the bottom support box. The rotating top transmission cylinder will drive the top connecting ring to rotate synchronously, and through the sliding sleeve of the top connecting ring and the top sliding rail, it will be movably connected to the bottom of the bottom support box through the top connecting ring when the top transmission cylinder rotates. Through the meshing of the continuously rotating top transmission cylinder and the bottom threaded rod, the continuously rotating top transmission cylinder will drive the bottom threaded rod to move vertically, through After the bottom threaded rod is lowered, it will synchronously drive the supporting platform to lower the surface of the top supporting plate. By lowering the supporting platform, the solidified gypsum mortar raw materials will be moved to the bottom of the top supporting plate. At the same time, the rotating right connecting gear plate will synchronously drive the bottom fixing rod to rotate, and the rotating bottom fixing rod will synchronously drive the top threaded rod to rotate. Through the threaded connection between the top threaded rod and the top threaded hole, when the top threaded rod rotates, it will synchronously drive the side connecting plate to move vertically, and the vertically moving side connecting plate will synchronously drive the forming cylinder to move vertically, and when the forming cylinder moves vertically, it will synchronously drive the bottom sliding frame to slide along one side of the side fixing plate, and the threaded rotation directions of the top threaded rod and the top transmission cylinder are opposite. When the forming cylinder rises, the supporting platform will synchronously descend;

[0021] S5. After the support platform is lowered to the bottom of the top support plate, the rotating No. 5 bevel gear plate will synchronously drive the No. 7 bevel gear plate to rotate, and the rotating No. 7 bevel gear plate will synchronously drive the bottom support rod to rotate. The rotating No. 7 bevel gear plate will mesh with the No. 8 bevel gear plate, and when the No. 7 bevel gear plate rotates, it will synchronously drive the side support rod to rotate. The rotating side support rod will synchronously drive the No. 9 bevel gear plate to rotate, and the rotating No. 9 bevel gear plate will synchronously drive the No. 10 bevel gear plate to rotate. Through the meshing of the right transmission tooth and the sleeve outer gear ring, when the right transmission tooth rotates, it will synchronously drive the sleeve outer gear ring to rotate. The rotating sleeve outer gear ring will synchronously drive the bottom transmission cylinder to rotate, and when the bottom transmission cylinder rotates, it will slide through the sliding side rails and the bottom support frame, and the sliding side rails will be supported by the bottom support frame. Continuous rotation of the bottom transmission cylinder will drive the inner cleaning brush to rotate.

[0022] Compared with the prior art, the present invention has the following beneficial effects:

[0023] 1) The rotating bottom transmission rod will synchronously drive multiple mixing sleeves to move. The multiple mixing sleeves stir along the inner side of the forming tube, which will improve the uniformity of the gypsum mortar raw materials in the forming tube. At the same time, during the stirring of the multiple mixing sleeves, the vibration motor in the side control box is started, and the vibration plate is driven to vibrate by the vibration motor. The vibrating vibration plate will synchronously drive the vibration rod to vibrate. The rotating mixing sleeve stirs the gypsum mortar while using multiple vibration rods to vibrate, so that the bubbles in the gypsum mortar are quickly discharged, and the uniformity of the raw materials in the gypsum mortar is improved;

[0024] 2) The rotating No. 6 bevel gear plate will synchronously drive the side connecting rod to rotate, and the side connecting rod will synchronously drive the guide fan to rotate. When the guide fan rotates, it will be movably connected to one side of the side limit frame through the No. 4 bearing plate to maintain the stable rotation of the guide fan. The rotating guide fan will rotate along the inner side of the protective bellows and generate wind to blow to one side of the protective bellows. By continuously blowing to the surface of the forming cylinder to cool down, the situation of excessive bubbles generated during the mixing process due to excessive ambient temperature is reduced;

[0025] 3) By raising the side sleeve plate, the raised side sleeve plate will lift the mixing sleeve frame and move it out of the inner side of the forming cylinder. At this time, the electric heating tube is started by controlling the controller. The electric heating tube will heat up after starting, and the temperature inside the heating box will continue to rise. At this time, the high temperature inside the heating box is transmitted to the surface of the forming cylinder with the help of the continuously rotating guide fan, thereby improving the curing rate of the gypsum mortar in the forming cylinder and improving the curing effect of the gypsum mortar;

[0026] 4) Through the threaded connection between the top threaded rod and the top threaded hole, when the top threaded rod rotates, it will synchronously drive the side connecting plate to move vertically, and the vertically moving side connecting plate will synchronously drive the forming tube to move vertically, and when the forming tube moves vertically, it will synchronously drive the bottom sliding frame to slide along one side of the side fixed plate, and the top threaded rod and the top transmission tube have opposite thread rotation directions. When the forming tube rises, the supporting platform will synchronously drop, which is convenient for operators to handle, and no manual loading and unloading operations are required;

[0027] 5) When the bottom transmission cylinder rotates, the sliding side rails and the bottom support frame will slide, and the bottom support frame will be used to support the sliding side rails to maintain the stable rotation of the bottom transmission cylinder. The continuous rotation of the bottom transmission cylinder will drive the internal cleaning brush to rotate, and the rotating internal cleaning brush will be used to clean the solidified raw materials. By continuously cleaning the surface of the solidified raw materials, the cleanliness of the solidified raw materials is improved, and the effect of subsequent inspections is improved. BRIEF DESCRIPTION OF THE DRAWINGS

[0028] The accompanying drawings are used to provide a further understanding of the present invention and constitute a part of the specification. Together with the embodiments of the present invention, they are used to explain the present invention and do not constitute a limitation of the present invention. In the accompanying drawings:

[0029] Figure 1 It is a schematic diagram of the overall appearance structure of the present invention;

[0030] Figure 2 It is a schematic diagram of the structure of the inner support rod of the present invention;

[0031] Figure 3 It is a schematic diagram of the structure of the heating box of the present invention;

[0032] Figure 4 It is a schematic diagram of the structure of the vibration rod of the present invention;

[0033] Figure 5 It is a schematic diagram of the structure of the stirring sleeve frame of the present invention;

[0034] Figure 6 It is a structural schematic diagram of the fourth bearing disc of the present invention;

[0035] Figure 7 It is a schematic diagram of the structure of the side transmission rod of the present invention;

[0036] Figure 8 It is a schematic diagram of the air inlet structure of the present invention;

[0037] Fig. 9 It is a schematic diagram of the side slide rail structure of the present invention;

[0038] Fig.10 It is a schematic diagram of the structure of the servo motor of the present invention;

[0039] Fig.11 It is a schematic diagram of the structure of the bottom transmission cylinder of the present invention;

[0040] Fig.12 It is a schematic diagram of the bottom fixing rod structure of the present invention;

[0041] Fig.13 It is a schematic diagram of the top sliding rail structure of the present invention;

[0042] Fig.14 It is a schematic diagram of the bottom connecting rod structure of the present invention.

[0043] In the figure: 1, bottom support box; 2, inner support rod; 3, top support plate; 401, side fixing plate; 402, side slide rail; 403, connecting groove; 404, top sliding frame; 405, side sliding plate; 406, electric push rod; 407, side sleeve plate; 501, transmission motor; 502, bottom transmission rod; 503, side control box; 504, stirring sleeve frame; 505, connecting hole; 506, vibration motor; 507, vibration plate; 508, vibration rod; 601, No. 1 helical gear plate; 602, No. 2 helical gear plate; 603 , bearing plate No. 1; 604, side transmission rod; 605, bevel gear plate No. 3; 606, bearing plate No. 2; 607, side movable plate; 608, side limit plate; 609, bearing plate No. 3; 6010, top connecting rod; 6011, bevel gear plate No. 4; 6012, bottom connecting rod; 6013, bevel gear plate No. 5; 6014, bevel gear plate No. 6; 6015, side connecting rod; 6016, guide fan; 6017, bearing plate No. 4; 6018, side limit frame; 6019, protective bellows; 6020, side protective frame ;701, heating box;702, air inlet;703, controller;704, electric heating tube;705, side clamping plate;801, forming cylinder;802, bottom sliding frame;803, side connecting plate;804, top threaded hole;805, top threaded rod;806, bottom fixing rod;807, bottom support plate;808, servo motor;809, right connecting gear disc;8010, transmission toothed belt;8011, left connecting gear disc;8012, top transmission cylinder;8013, top connecting ring;8014, top sliding rail;8 015, bottom threaded rod; 8016, support platform; 901, No. 7 oblique toothed disc; 902, bottom support rod; 903, No. 5 bearing disc; 904, No. 8 oblique toothed disc; 905, side support rod; 906, No. 9 oblique toothed disc; 907, No. 10 oblique toothed disc; 908, right transmission gear; 909, side limit rod; 9010, No. 6 bearing disc; 9011, sleeve outer gear ring; 9012, bottom transmission cylinder; 9013, inner cleaning brush; 9014, sliding side rail; 9015, bottom support frame; 9016, bottom connecting column. DETAILED DESCRIPTION

[0044] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0045] Example 1

[0046] In this embodiment, Figure 1-Figure 14 Given, the present invention provides the following technical solutions:

[0047] A gypsum mortar detection device comprises a bottom support box 1, the top of the bottom support box 1 is fixedly connected to an inner support rod 2, the top of the inner support rod 2 is fixedly connected to a top support plate 3, one side of the top support plate 3 is fixedly connected to a side fixing plate 401, one side of the side fixing plate 401 is fixedly connected to an electric push rod 406, one side of the side fixing plate 401 is provided with a side slide rail 402, one side of the side slide rail 402 is provided with a connecting groove 403, the inner side of the connecting groove 403 is slidably connected to a side slide plate 405, one side of the side slide plate 405 is fixedly connected to a top slide frame 404, one side of the top slide frame 404 A side socket plate 407 is fixedly connected to the side, a transmission motor 501 is fixedly connected to one side of the side socket plate 407, an output shaft of the transmission motor 501 is fixedly connected to a bottom transmission rod 502, both sides of the bottom transmission rod 502 are fixedly connected to a side control box 503, a vibration motor 506 is fixedly connected to the inner side of the side control box 503, an output shaft of the vibration motor 506 is fixedly connected to a vibration plate 507, a vibration rod 508 is fixedly connected to the surface of the vibration plate 507, a stirring sleeve frame 504 is fixedly connected to one side of the side control box 503, and a connecting hole 505 is provided on the surface of the stirring sleeve frame 504.

[0048] It should be noted that by starting the transmission motor 501, the transmission motor 501 will drive the bottom transmission rod 502 to rotate after starting, and the rotating bottom transmission rod 502 will synchronously drive multiple mixing sleeves 504 to move, and the multiple mixing sleeves 504 will stir along the inner side of the forming tube 801, which will improve the uniformity of the gypsum mortar raw materials in the forming tube 801. At the same time, during the stirring of the multiple mixing sleeves 504, the vibration motor 506 in the side control box 503 is started, and the vibration motor 506 is used to start and drive the vibration plate 507 to vibrate. The vibrating vibration plate 507 will synchronously drive the vibration rod 508 to vibrate. The rotating mixing sleeve 504 stirs the gypsum mortar while using the multiple vibration rods 508 to vibrate, so as to quickly discharge the bubbles in the gypsum mortar and improve the uniformity of the raw materials in the gypsum mortar.

[0049] In an optional embodiment: a first beveled toothed disc 601 is fixedly connected to the surface of the bottom transmission rod 502, a second beveled toothed disc 602 is meshedly connected to one side of the first beveled toothed disc 601, a first bearing disc 603 is movably connected to one side of the second beveled toothed disc 602, a side transmission rod 604 is fixedly connected to one side of the second beveled toothed disc 602, a third beveled toothed disc 605 is fixedly connected to one end of the side transmission rod 604, a fourth beveled toothed disc 6011 is meshedly connected to one side of the third beveled toothed disc 605, a fourth beveled toothed disc 6011 is meshedly connected to the bottom of the fourth beveled toothed disc 6011, a bottom connecting rod 6012 is fixedly connected to the bottom of the bottom connecting rod 6012, a fifth beveled toothed disc 6013 is fixedly connected to the bottom of the fifth beveled toothed disc 6013, a sixth beveled toothed disc 6014 is meshedly connected to one side of the sixth beveled toothed disc 6014, a side connecting rod 6015 is fixedly connected to one side of the side connecting rod 6015, and a fan 6016 is fixedly connected to one side of the side connecting rod 6015.

[0050] It should be noted that the side connecting rod 6015 will synchronously drive the fan 6016 to rotate. When the fan 6016 rotates, it will be movably connected to one side of the side limit frame 6018 through the No. 4 bearing disk 6017 to maintain the stable rotation of the fan 6016. The rotating fan 6016 will rotate along the inner side of the protective bellows 6019 and generate wind to blow toward one side of the protective bellows 6019. By continuously blowing toward the surface of the forming cylinder 801 to cool it down, the situation where the surrounding environment temperature is too high and excessive bubbles are generated during the mixing process can be reduced.

[0051] In an optional embodiment: one side of the No. 3 bevel gear disk 605 is movably connected to the No. 2 bearing disk 606, one side of the No. 2 bearing disk 606 is movably connected to the side movable disk 607, one side of the side movable disk 607 is fixedly connected to the side limit plate 608, the bottom of the side limit plate 608 is movably connected to the No. 3 bearing disk 609, the bottom of the No. 3 bearing disk 609 is movably connected to the top connecting rod 6010, and the bottom of the top connecting rod 6010 is fixedly connected to the top of the No. 4 bevel gear disk 6011.

[0052] It should be noted that, by utilizing the fixation of the side movable disk 607 and the side limit plate 608, when the No. 3 bevel gear disk 605 rotates, the side limit plate 608 will be used to support the No. 3 bearing disk 609, and by utilizing the movable connection of the No. 3 bearing disk 609, when the No. 3 bevel gear disk 605 rotates, the No. 4 bevel gear disk 6011 is supported, the rotating No. 4 bevel gear disk 6011 will synchronously drive the bottom connecting rod 6012 to rotate, the rotating bottom connecting rod 6012 will synchronously drive the No. 5 bevel gear disk 6013 to rotate, and the bottom connecting rod 6012 is retractable, and when the side socket plate 407 adjusts the height, it will synchronously drive the bottom connecting rod 6012 to retract, the rotating No. 5 bevel gear disk 6013 will synchronously drive the No. 6 bevel gear disk 6014 to rotate, the rotating No. 6 bevel gear disk 6014 will synchronously drive the side connecting rod 6015 to rotate, and the side connecting rod 6015 will synchronously drive the fan 6016 to rotate.

[0053] In an optional embodiment: a protective bellows 6019 is fixedly connected to the top of the top support plate 3, a side protective frame 6020 is fixedly connected to one side of the protective bellows 6019, a side limit frame 6018 is fixedly connected to one side of the protective bellows 6019, a No. 4 bearing disk 6017 is movably connected to one side of the side limit frame 6018, one side of the No. 4 bearing disk 6017 is movably connected to one side of the fan 6016, a side clamping plate 705 is fixedly connected to one side of the side clamping plate 705, a heating box 701 is fixedly connected to one side of the heating box 701, a controller 703 is fixedly connected to one side of the heating box 701, an electric heating pipe 704 is movably connected to the inner side of the heating box 701, and an air inlet hole 702 is opened on one side of the heating box 701.

[0054] It should be noted that by raising the side sleeve plate 407, the raised side sleeve plate 407 will lift the mixing sleeve frame 504 and move it out of the inner side of the forming tube 801. At this time, the electric heating tube 704 is started by controlling the controller 703. The electric heating tube 704 will heat up after starting, and the temperature inside the heating box 701 will continue to rise. At this time, the continuously rotating fan 6016 will transfer the high temperature inside the heating box 701 to the surface of the forming tube 801, thereby improving the curing rate of the gypsum mortar in the forming tube 801 and improving the curing effect of the gypsum mortar.

[0055] In an optional embodiment: one side of the bottom support box 1 is fixedly connected to a bottom support plate 807, one side of the bottom support plate 807 is fixedly connected to a servo motor 808, the output shaft of the servo motor 808 is fixedly connected to a right connecting gear disc 809, the top of the right connecting gear disc 809 is fixedly connected to a bottom fixing rod 806, the top of the bottom fixing rod 806 is fixedly connected to a top threaded rod 805, one side of the side slide rail 402 is slidably connected to a bottom sliding frame 802, one side of the bottom sliding frame 802 is fixedly connected to a forming cylinder 801, one side of the forming cylinder 801 is fixedly connected to a side connecting plate 803, a top threaded hole 804 is opened on the surface of the side connecting plate 803, and the inner side of the top threaded hole 804 is threadedly connected to the surface of the top threaded rod 805

[0056] It should be noted that, through the threaded connection between the top threaded rod 805 and the top threaded hole 804, when the top threaded rod 805 rotates, it will synchronously drive the side connecting plate 803 to move vertically, and the vertically moving side connecting plate 803 will synchronously drive the forming tube 801 to move vertically, and when the forming tube 801 moves vertically, it will synchronously drive the bottom sliding frame 802 to slide along one side of the side fixed plate 401, and the threaded rotation directions of the top threaded rod 805 and the top transmission tube 8012 are opposite. When the forming tube 801 is raised, the support platform 8016 will synchronously descend, which is convenient for the operator to handle and no manual loading and unloading operations are required.

[0057] In an optional embodiment: one side of the right connecting toothed disc 809 is transmission-connected with a transmission belt 8010, one side of the transmission belt 8010 is transmission-connected with a left connecting toothed disc 8011, the top of the left connecting toothed disc 8011 is fixedly connected with a top transmission cylinder 8012, the inner side of the top transmission cylinder 8012 is threadedly connected with a bottom threaded rod 8015, and the top of the bottom threaded rod 8015 is fixedly connected with a support platform 8016.

[0058] It should be noted that, through the engagement of the continuously rotating top transmission cylinder 8012 and the bottom threaded rod 8015, the continuously rotating top transmission cylinder 8012 will drive the bottom threaded rod 8015 to move vertically. By lowering the bottom threaded rod 8015, it will simultaneously drive the support platform 8016 to lower the surface of the top support plate 3. By lowering the support platform 8016, the solidified gypsum mortar raw materials will be moved to the bottom of the top support plate 3, so as to facilitate the processing of the solidified gypsum mortar.

[0059] In an optional embodiment: the top of the bottom support box 1 is fixedly connected to a bottom support frame 9015, one side of the bottom support frame 9015 is slidably connected to a sliding side rail 9014, the inner side of the sliding side rail 9014 is fixedly connected to a bottom transmission cylinder 9012, and the inner side of the bottom transmission cylinder 9012 is fixedly connected to an inner cleaning brush 9013.

[0060] It should be noted that the rotating sleeve outer gear ring 9011 will synchronously drive the bottom transmission cylinder 9012 to rotate, and when the bottom transmission cylinder 9012 rotates, it will slide through the sliding side rails 9014 and the bottom support frame 9015, and the sliding side rails 9014 will be supported by the bottom support frame 9015 to maintain the stable rotation of the bottom transmission cylinder 9012. The continuous rotation of the bottom transmission cylinder 9012 will drive the internal cleaning brush 9013 to rotate, and the rotating internal cleaning brush 9013 is used to clean the solidified raw materials. By continuously cleaning the surface of the solidified raw materials, the cleanliness of the solidified raw materials is improved, and the effect of subsequent inspections is improved.

[0061] In an optional embodiment, the bottom of the fifth beveled toothed disc 6013 is fixedly connected to a bottom connecting column 9016, the bottom of the bottom connecting column 9016 is fixedly connected to the seventh beveled toothed disc 901, one side of the seventh beveled toothed disc 901 is meshedly connected to the eighth beveled toothed disc 904, one side of the eighth beveled toothed disc 904 is fixedly connected to a side support rod 905, one end of the side support rod 905 is fixedly connected to the ninth beveled toothed disc 906, one side of the ninth beveled toothed disc 906 is meshedly connected to the tenth beveled toothed disc 907, and the tenth beveled toothed disc 90 The bottom of 7 is fixedly connected with a right transmission tooth 908, the bottom of the right transmission tooth 908 is fixedly connected with a side limit rod 909, the bottom of the side limit rod 909 is movably connected with a No. 6 bearing disk 9010, the bottom of the No. 7 bevel gear disk 901 is fixedly connected with a bottom support rod 902, the bottom of the bottom support rod 902 is movably connected with a No. 5 bearing disk 903, and the surface of the bottom transmission cylinder 9012 is fixedly connected with a sleeve outer gear ring 9011, and one side of the sleeve outer gear ring 9011 is meshed and connected with one side of the right transmission tooth 908.

[0062] It should be noted that the rotating No. 5 bevel gear plate 6013 will synchronously drive the bottom connecting column 9016 to rotate, the rotating bottom connecting column 9016 will synchronously drive the No. 7 bevel gear plate 901 to rotate, the rotating No. 7 bevel gear plate 901 will synchronously drive the bottom support rod 902 to rotate, and the bottom support rod 902 is supported on the top of the bottom support box 1 through the No. 5 bearing plate 903, so as to maintain the stable rotation of the bottom support rod 902 and the No. 7 bevel gear plate 901, and the rotating No. 7 bevel gear plate 901 will synchronously drive the side support rod 905 to rotate when the No. 7 bevel gear plate 901 rotates through the engagement with the No. 8 bevel gear plate 904. The rotating side support rod 905 will synchronously drive the ninth bevel gear plate 906 to rotate, the rotating ninth bevel gear plate 906 will synchronously drive the tenth bevel gear plate 907 to rotate, the rotating tenth bevel gear plate 907 will drive the right transmission gear 908 to rotate, and the side limit rod 909 at the bottom of the right transmission gear 908 is actively connected with the sixth bearing plate 9010 to keep the side limit rod 909 stably supporting the right transmission gear 908, and the right transmission gear 908 is meshed with the sleeve outer gear ring 9011, and when the right transmission gear 908 rotates, it will synchronously drive the sleeve outer gear ring 9011 to rotate.

[0063] In an optional embodiment: the top of the top transmission cylinder 8012 is fixedly connected with a top connecting ring 8013, the bottom of the bottom support box 1 is fixedly connected with a top sliding rail 8014, and the bottom of the top sliding rail 8014 is slidably connected to the top of the top connecting ring 8013.

[0064] It should be noted that the rotating top transmission cylinder 8012 will drive the top connecting ring 8013 to rotate synchronously, and through the sliding sleeve of the top connecting ring 8013 and the top sliding rail 8014, when the top transmission cylinder 8012 rotates, it will be movably connected to the bottom of the bottom support box 1 through the top connecting ring 8013.

[0065] Example 2

[0066] This embodiment 2 provides a method for using a gypsum mortar detection device, which is used to further illustrate the working process or principle of the gypsum mortar detection device provided in the above embodiment 1, and the details are as follows:

[0067] A method for using a gypsum mortar detection device comprises the following steps:

[0068] S1. First, pour the gypsum mortar raw materials that need to be stirred into the forming cylinder 801. After pouring the gypsum mortar raw materials, start the electric push rod 406. After the electric push rod 406 is started, it will drive the side sliding plate 405 to descend. When the side sliding plate 405 descends, it will slide along the inner side of the connecting groove 403, thereby improving the stability of the side sliding plate 405 during the descent process. At the same time, during the descent of the side sliding plate 405, the top sliding frame 404 will be synchronously driven to move. During the movement of the top sliding frame 404, it will slide along the surface of the side sliding rail 402, thereby improving the stability of the movement of the top sliding frame 404. After lowering the top sliding frame 404, the side sleeve plate 407 will be driven to be lowered synchronously. After the side sleeve plate 407 is lowered, it will drive the transmission motor 501 to descend. After the transmission motor 501 is lowered, it will drive the bottom transmission rod 502 to move synchronously. At this time, the bottom transmission rod 502 It will drop into the forming cylinder 801, and at this time, by starting the transmission motor 501, the transmission motor 501 will drive the bottom transmission rod 502 to rotate after starting, and the rotating bottom transmission rod 502 will synchronously drive multiple stirring sleeves 504 to move, and multiple stirring sleeves 504 will stir along the inner side of the forming cylinder 801, which will improve the uniformity of the gypsum mortar raw materials in the forming cylinder 801. At the same time, during the stirring of the multiple stirring sleeves 504, the vibration motor 506 in the side control box 503 is started, and the vibration motor 506 is used to start and drive the vibration plate 507 to vibrate, and the vibrating vibration plate 507 will synchronously drive the vibration rod 508 to vibrate, and the rotating stirring sleeve 504 stirs the gypsum mortar while using the multiple vibration rods 508 to vibrate, so that the bubbles in the gypsum mortar are quickly discharged, and the uniformity of the raw materials in the gypsum mortar is improved;

[0069] S2. The bottom transmission rod 502 will synchronously drive the No. 1 bevel gear plate 601 to rotate during the rotation process. The rotating No. 1 bevel gear plate 601 will synchronously drive the No. 2 bevel gear plate 602 to rotate. The rotating No. 2 bevel gear plate 602 will be movably connected to one side of the side sleeve plate 407 through the No. 1 bearing plate 603. The side sleeve plate 407 is used to movably support the No. 1 bearing plate 603 and the side transmission rod 604. The rotating No. 2 bevel gear plate 602 will synchronously drive the side transmission rod 604 to rotate. The synchronously rotating side transmission rod 604 will drive the third bevel gear plate 605 to rotate, and the rotating third bevel gear plate 605 will synchronously drive the fourth bevel gear plate 6011 to rotate, and when the third bevel gear plate 605 rotates, it will be movably connected with the side movable plate 607 through the second bearing plate 606, and the side movable plate 607 is fixed with the side limit plate 608. When the third bevel gear plate 605 rotates, the side limit plate 608 is used to support the third bearing plate 609, and the movable connection of the third bearing plate 609 is used to support the fourth bevel gear plate 6011 when the third bevel gear plate 605 rotates. The helical toothed disc 6011 is supported, the rotating No. 4 helical toothed disc 6011 will synchronously drive the bottom connecting rod 6012 to rotate, the rotating bottom connecting rod 6012 will synchronously drive the No. 5 helical toothed disc 6013 to rotate, and the bottom connecting rod 6012 is retractable, and when the side sleeve plate 407 adjusts the height, it will synchronously drive the bottom connecting rod 6012 to retract, the rotating No. 5 helical toothed disc 6013 will synchronously drive the No. 6 helical toothed disc 6014 to rotate, and the rotating No. 6 helical toothed disc 6014 will synchronously drive the side connecting rod 6015 to rotate. The side connecting rod 6015 will synchronously drive the guide fan 6016 to rotate. When the guide fan 6016 rotates, it will be movably connected to one side of the side limit frame 6018 through the fourth bearing plate 6017 to maintain the stable rotation of the guide fan 6016. The rotating guide fan 6016 will rotate along the inner side of the protective wind box 6019 and generate wind to blow to one side of the protective wind box 6019. By continuously blowing to the surface of the forming cylinder 801 to cool down, the situation of excessive bubbles generated during the mixing process due to excessively high ambient temperature is reduced.

[0070] S3. After the stirring is completed, the side sleeve plate 407 is raised, and the raised side sleeve plate 407 will lift the stirring sleeve frame 504 and move it out of the inner side of the forming cylinder 801. At this time, the electric heating tube 704 is started by controlling the controller 703. The electric heating tube 704 will heat up after starting, and the temperature inside the heating box 701 will continue to rise. At this time, the continuously rotating guide fan 6016 will transmit the high temperature inside the heating box 701 to the surface of the forming cylinder 801, thereby improving the curing rate of the gypsum mortar in the forming cylinder 801 and improving the curing effect of the gypsum mortar.

[0071] S4. After the curing is completed, the servo motor 808 is started, and the right connecting toothed disc 809 is driven to rotate by the servo motor 808. The rotating right connecting toothed disc 809 will synchronously drive the transmission toothed belt 8010 to move. Through the transmission of the transmission toothed belt 8010, the rotating right connecting toothed disc 809 will synchronously drive the left connecting toothed disc 8011 to rotate. The rotating left connecting toothed disc 8011 will synchronously drive the top transmission cylinder 8012 to rotate. The rotating top transmission cylinder 8012 will rotate along the bottom When one side of the support box 1 rotates, the rotating top transmission cylinder 8012 will drive the top connecting ring 8013 to rotate synchronously, and through the sliding sleeve of the top connecting ring 8013 and the top sliding rail 8014, when the top transmission cylinder 8012 rotates, it will be movably connected to the bottom of the bottom support box 1 through the top connecting ring 8013, and through the engagement of the continuously rotating top transmission cylinder 8012 with the bottom threaded rod 8015, the continuously rotating top transmission cylinder 8012 will drive the bottom threaded rod 8015 to move vertically, through After the bottom threaded rod 8015 is lowered, it will synchronously drive the supporting platform 8016 to lower the surface of the top supporting plate 3. By lowering the supporting platform 8016, the solidified gypsum mortar raw material will be moved to the bottom of the top supporting plate 3. At the same time, the rotating right connecting toothed disc 809 will synchronously drive the bottom fixing rod 806 to rotate, and the rotating bottom fixing rod 806 will synchronously drive the top threaded rod 805 to rotate. Through the threaded connection between the top threaded rod 805 and the top threaded hole 804, when the top threaded rod 805 rotates, it will synchronously drive the side connecting plate 803 to move vertically. The vertically moving side connecting plate 803 will synchronously drive the forming tube 801 to move vertically, and when the forming tube 801 moves vertically, it will synchronously drive the bottom sliding frame 802 to slide along one side of the side fixing plate 401, and the threaded rotation directions of the top threaded rod 805 and the top transmission tube 8012 are opposite. When the forming tube 801 is raised, the supporting platform 8016 will synchronously descend, which is convenient for the operator to handle, and there is no need for manual loading and unloading operations.

[0072] S5, after the support platform 8016 is lowered to the bottom of the top support plate 3, the rotating No. 5 bevel gear plate 6013 will synchronously drive the bottom connecting column 9016 to rotate, and the rotating bottom connecting column 9016 will synchronously drive the No. 7 bevel gear plate 901 to rotate, and the rotating No. 7 bevel gear plate 901 will synchronously drive the bottom support rod 902 to rotate, and support the bottom support rod 902 on the top of the bottom support box 1 through the No. 5 bearing plate 903, keeping the bottom support rod 902 and the No. 7 bearing plate 903 in a stable state. The No. 7 bevel gear plate 901 rotates stably, and the rotating No. 7 bevel gear plate 901 meshes with the No. 8 bevel gear plate 904. When the No. 7 bevel gear plate 901 rotates, it will synchronously drive the side support rod 905 to rotate. The rotating side support rod 905 will synchronously drive the No. 9 bevel gear plate 906 to rotate. The rotating No. 9 bevel gear plate 906 will synchronously drive the No. 10 bevel gear plate 907 to rotate. The rotating No. 10 bevel gear plate 907 will drive the right transmission gear 908 to rotate. The side limit rod 909 at the bottom of the movable tooth 908 is movably connected with the No. 6 bearing disk 9010, so that the side limit rod 909 can stably support the right transmission tooth 908. Through the meshing of the right transmission tooth 908 and the sleeve outer gear ring 9011, when the right transmission tooth 908 rotates, the sleeve outer gear ring 9011 will be synchronously driven to rotate, and the rotating sleeve outer gear ring 9011 will synchronously drive the bottom transmission cylinder 9012 to rotate. When the bottom transmission cylinder 9012 rotates, the sliding side rail 9014 and the bottom support frame 9015 slide, and the bottom support frame 9015 is used to support the sliding side rail 9014 to maintain the stable rotation of the bottom transmission cylinder 9012. Continuously rotating the bottom transmission cylinder 9012 will drive the internal cleaning brush 9013 to rotate, and the rotating internal cleaning brush 9013 is used to clean the solidified raw material. By continuously cleaning the surface of the solidified raw material, the cleanliness of the solidified raw material is improved, and the effect of subsequent detection is improved.

[0073] It should be noted that the parts not described in detail in the present invention are all prior art, and the corresponding models can be selected according to actual needs. The internal structure and operating principle of the above parts are also common knowledge of those skilled in the art, and no further elaboration will be given on this.

[0074] Finally, it should be noted that the above is only a preferred embodiment of the present invention and is not intended to limit the present invention. Although the present invention has been described in detail with reference to the aforementioned embodiments, those skilled in the art can still modify the technical solutions described in the aforementioned embodiments or replace some of the technical features therein by equivalents. Any modification, equivalent replacement, improvement, etc. made within the spirit and principle of the present invention shall be included in the protection scope of the present invention.

Claims

1. A gypsum mortar detection device, comprising a bottom support box (1), characterized in that: The top of the bottom support box (1) is fixedly connected to an inner support rod (2), the top of the inner support rod (2) is fixedly connected to a top support plate (3), one side of the top support plate (3) is fixedly connected to a side fixing plate (401), one side of the side fixing plate (401) is fixedly connected to an electric push rod (406), one side of the side fixing plate (401) is provided with a side slide rail (402), one side of the side slide rail (402) is provided with a connecting groove (403), the inner side of the connecting groove (403) is slidably connected to a side slide plate (405), one side of the side slide plate (405) is fixedly connected to a top slide frame (404), one side of the top slide frame (404) is fixedly connected to a side sleeve A plate (407) is provided, one side of the side sleeve plate (407) is fixedly connected to a transmission motor (501), the output shaft of the transmission motor (501) is fixedly connected to a bottom transmission rod (502), both sides of the bottom transmission rod (502) are fixedly connected to a side control box (503), the inner side of the side control box (503) is fixedly connected to a vibration motor (506), the output shaft of the vibration motor (506) is fixedly connected to a vibration plate (507), the surface of the vibration plate (507) is fixedly connected to a vibration rod (508), one side of the side control box (503) is fixedly connected to a stirring sleeve frame (504), and a connecting hole (505) is provided on the surface of the stirring sleeve frame (504).

2. A gypsum mortar detection device according to claim 1, characterized in that: A first bevel gear disc (601) is fixedly connected to the surface of the bottom transmission rod (502), one side of the first bevel gear disc (601) is meshedly connected to a second bevel gear disc (602), one side of the second bevel gear disc (602) is movably connected to a first bearing disc (603), one side of the second bevel gear disc (602) is fixedly connected to a side transmission rod (604), one end of the side transmission rod (604) is fixedly connected to a third bevel gear disc (605), one side of the third bevel gear disc (605) is meshedly connected to There is a fourth bevel gear disc (6011), the bottom of the fourth bevel gear disc (6011) is fixedly connected to a bottom connecting rod (6012), the bottom of the bottom connecting rod (6012) is fixedly connected to a fifth bevel gear disc (6013), one side of the fifth bevel gear disc (6013) is meshingly connected to a sixth bevel gear disc (6014), one side of the sixth bevel gear disc (6014) is fixedly connected to a side connecting rod (6015), and one side of the side connecting rod (6015) is fixedly connected to a ventilating fan (6016).

3. A gypsum mortar detection device according to claim 2, characterized in that: One side of the third bevel gear disc (605) is movably connected to the second bearing disc (606), one side of the second bearing disc (606) is movably connected to the side movable disc (607), one side of the side movable disc (607) is fixedly connected to the side limit plate (608), the bottom of the side limit plate (608) is movably connected to the third bearing disc (609), the bottom of the third bearing disc (609) is movably connected to the top connecting rod (6010), and the bottom of the top connecting rod (6010) is fixedly connected to the top of the fourth bevel gear disc (6011).

4. A gypsum mortar detection device according to claim 3, characterized in that: The top of the top support plate (3) is fixedly connected to a protective bellows (6019), one side of the protective bellows (6019) is fixedly connected to a side protective frame (6020), one side of the protective bellows (6019) is fixedly connected to a side limit frame (6018), one side of the side limit frame (6018) is movably connected to a fourth bearing disk (6017), one side of the fourth bearing disk (6017) is movably connected to a side of the guide fan (6016), one side of the protective bellows (6019) is fixedly connected to a side clamping plate (705), one side of the side clamping plate (705) is fixedly connected to a heating box (701), one side of the heating box (701) is fixedly connected to a controller (703), the inner side of the heating box (701) is movably connected to an electric heating pipe (704), and one side of the heating box (701) is provided with an air inlet hole (702).

5. A gypsum mortar detection device according to claim 4, characterized in that: A bottom support plate (807) is fixedly connected to one side of the bottom support box (1), a servo motor (808) is fixedly connected to one side of the bottom support plate (807), an output shaft of the servo motor (808) is fixedly connected to a right connecting gear disc (809), a bottom fixing rod (806) is fixedly connected to the top of the right connecting gear disc (809), a top of the bottom fixing rod (806) is fixedly connected to a top threaded rod (805), a bottom sliding frame (802) is slidably connected to one side of the side slide rail (402), a forming cylinder (801) is fixedly connected to one side of the bottom sliding frame (802), a side of the forming cylinder (801) is fixedly connected to a side connecting plate (803), a top threaded hole (804) is provided on the surface of the side connecting plate (803), and the inner side of the top threaded hole (804) is threadedly connected to the surface of the top threaded rod (805).

6. A gypsum mortar detection device according to claim 5, characterized in that: One side of the right connecting toothed disc (809) is connected to a transmission toothed belt (8010), one side of the transmission toothed belt (8010) is connected to a left connecting toothed disc (8011), the top of the left connecting toothed disc (8011) is fixedly connected to a top transmission cylinder (8012), the inner side of the top transmission cylinder (8012) is threadedly connected to a bottom threaded rod (8015), and the top of the bottom threaded rod (8015) is fixedly connected to a support platform (8016).

7. A gypsum mortar detection device according to claim 6, characterized in that: The top of the bottom support box (1) is fixedly connected to a bottom support frame (9015), one side of the bottom support frame (9015) is slidably connected to a sliding side rail (9014), the inner side of the sliding side rail (9014) is fixedly connected to a bottom transmission cylinder (9012), and the inner side of the bottom transmission cylinder (9012) is fixedly connected to an inner cleaning brush (9013).

8. A gypsum mortar detection device according to claim 7, characterized in that: The bottom of the fifth bevel gear disc (6013) is fixedly connected to a bottom connecting column (9016), the bottom of the bottom connecting column (9016) is fixedly connected to a seventh bevel gear disc (901), one side of the seventh bevel gear disc (901) is meshedly connected to an eighth bevel gear disc (904), one side of the eighth bevel gear disc (904) is fixedly connected to a side support rod (905), one end of the side support rod (905) is fixedly connected to a ninth bevel gear disc (906), one side of the ninth bevel gear disc (906) is meshedly connected to a tenth bevel gear disc (907), the bottom of the tenth bevel gear disc (907) is fixedly connected to a side support rod (905). A right transmission tooth (908) is fixedly connected thereto, the bottom of the right transmission tooth (908) is fixedly connected thereto with a side limit rod (909), the bottom of the side limit rod (909) is movably connected thereto with a No. 6 bearing disk (9010), the bottom of the No. 7 bevel gear disk (901) is fixedly connected thereto with a bottom support rod (902), the bottom of the bottom support rod (902) is movably connected thereto with a No. 5 bearing disk (903), the surface of the bottom transmission cylinder (9012) is fixedly connected thereto with a sleeved outer gear ring (9011), one side of the sleeved outer gear ring (9011) is meshedly connected to one side of the right transmission tooth (908).

9. A gypsum mortar detection device according to claim 8, characterized in that: The top of the top transmission cylinder (8012) is fixedly connected to a top connecting ring (8013), the bottom of the bottom support box (1) is fixedly connected to a top sliding rail (8014), and the bottom of the top sliding rail (8014) is slidably connected to the top of the top connecting ring (8013).

10. A method for using a gypsum mortar detection device, applied to a gypsum mortar detection device as claimed in claim 9, characterized in that: The steps include: S1. First, pour the gypsum mortar raw materials that need to be stirred into the forming cylinder (801). After pouring the gypsum mortar raw materials, start the electric push rod (406). After the electric push rod (406) is started, it will drive the side sliding plate (405) to descend. When the side sliding plate (405) descends, it will slide along the inner side of the connecting groove (403). At the same time, when the side sliding plate (405) descends, it will synchronously drive the top sliding frame (404) to move. When the top sliding frame (404) moves, it will slide along the surface of the side sliding rail (402). After the top sliding frame (404) is lowered, the side sleeve plate (407) will be driven to descend synchronously. After the side sleeve plate (407) is lowered, it will drive the transmission motor (501) to descend. , the lowered transmission motor (501) drives the bottom transmission rod (502) to move synchronously, and the bottom transmission rod (502) is lowered into the forming cylinder (801). At this time, the transmission motor (501) is started, and the transmission motor (501) drives the bottom transmission rod (502) to rotate. The rotating bottom transmission rod (502) drives the multiple stirring sleeves (504) to move synchronously. During the stirring of the multiple stirring sleeves (504), the vibration motor (506) in the side control box (503) is started, and the vibration motor (506) is used to start and drive the vibration plate (507) to vibrate. The vibrating vibration plate (507) drives the vibration rod (508) to vibrate synchronously; S2, the bottom transmission rod (502) will synchronously drive the first bevel gear plate (601) to rotate during the rotation process, the rotating first bevel gear plate (601) will synchronously drive the second bevel gear plate (602) to rotate, the rotating second bevel gear plate (602) will synchronously drive the side transmission rod (604) to rotate, the synchronously rotating side transmission rod (604) will drive the third bevel gear plate (605) to rotate, the rotating third bevel gear plate (605) will synchronously drive the fourth bevel gear plate (6011) to rotate, and when the third bevel gear plate (605) rotates, it will be movably connected to the side movable plate (607) through the second bearing plate (606), and the rotating fourth bevel gear plate (6011) will rotate by fixing the side movable plate (607) and the side limit plate (608). 1) It will synchronously drive the bottom connecting rod (6012) to rotate, and the rotating bottom connecting rod (6012) will synchronously drive the fifth bevel gear plate (6013) to rotate, and the bottom connecting rod (6012) is retractable. When the side sleeve plate (407) adjusts the height, it will synchronously drive the bottom connecting rod (6012) to retract, and the rotating fifth bevel gear plate (6013) will synchronously drive the sixth bevel gear plate (6014) to rotate, and the rotating sixth bevel gear plate (6014) will synchronously drive the side connecting rod (6015) to rotate, and the side connecting rod (6015) will synchronously drive the guide fan (6016) to rotate, and when the guide fan (6016) rotates, it will be movably connected to one side of the side limit frame (6018) through the fourth bearing plate (6017); S3, after the stirring is completed, the side sleeve plate (407) is raised, and the raised side sleeve plate (407) will lift the stirring sleeve frame (504) and move it out of the inner side of the forming cylinder (801). At this time, the electric heating tube (704) is started by controlling the controller (703). After the electric heating tube (704) is started, the temperature will rise, and the temperature inside the heating box (701) will continue to rise; S4, start the servo motor (808), drive the right connecting toothed disc (809) to rotate through the servo motor (808), the rotating right connecting toothed disc (809) will synchronously drive the transmission toothed belt (8010) to move, through the transmission of the transmission toothed belt (8010), the rotating right connecting toothed disc (809) will synchronously drive the left connecting toothed disc (8011) to rotate, the rotating left connecting toothed disc (8011) will synchronously drive the top transmission cylinder (8012) to rotate, the rotating top transmission cylinder (8012) will rotate along the bottom support When one side of the support box (1) rotates, the rotating top transmission cylinder (8012) drives the top connecting ring (8013) to rotate synchronously, and through the sliding sleeve connection between the top connecting ring (8013) and the top sliding rail (8014), the top transmission cylinder (8012) is movably connected to the bottom of the bottom support box (1) through the top connecting ring (8013), and the top transmission cylinder (8012) is continuously rotated. The meshing with the bottom threaded rod (8015), the continuously rotating top transmission cylinder (8012) drives the bottom threaded rod (8015) to rotate. The bottom threaded rod (8015) is lowered to synchronously drive the support platform (8016) to lower the surface of the top support plate (3). The support platform (8016) is lowered to move the solidified gypsum mortar raw materials to the bottom of the top support plate (3). At the same time, the rotating right connecting toothed disc (809) synchronously drives the bottom fixing rod (806) to rotate. The rotating bottom fixing rod (806) synchronously drives the top threaded rod (805) to rotate. The top threaded rod (805) and the top threaded hole (804) are connected. The top threaded rod (805) is connected with the side connecting plate (803) by a threaded connection, and when the top threaded rod (805) rotates, it will synchronously drive the side connecting plate (803) to move vertically, and the vertically moving side connecting plate (803) will synchronously drive the forming cylinder (801) to move vertically, and when the forming cylinder (801) moves vertically, it will synchronously drive the bottom sliding frame (802) to slide along one side of the side fixing plate (401), and the top threaded rod (805) and the top transmission cylinder (8012) have opposite threaded rotation directions, and when the forming cylinder (801) rises, the supporting platform (8016) will synchronously descend; S5. After the support platform (8016) is lowered to the bottom of the top support plate (3), the rotating No. 5 bevel gear disc (6013) will synchronously drive the No. 7 bevel gear disc (901) to rotate, and the rotating No. 7 bevel gear disc (901) will synchronously drive the bottom support rod (902) to rotate. The rotating No. 7 bevel gear disc (901) will mesh with the No. 8 bevel gear disc (904), and when the No. 7 bevel gear disc (901) rotates, it will synchronously drive the side support rod (905) to rotate. The rotating side support rod (905) will synchronously drive the No. 9 bevel gear disc (906) to rotate, and the rotating No. 9 bevel gear disc (906) will synchronously drive the No. 10 bevel gear disc (906). The toothed disc (907) rotates, and the right transmission tooth (908) meshes with the sleeve outer gear ring (9011). When the right transmission tooth (908) rotates, the sleeve outer gear ring (9011) is synchronously driven to rotate. The rotating sleeve outer gear ring (9011) synchronously drives the bottom transmission cylinder (9012) to rotate. When the bottom transmission cylinder (9012) rotates, the sliding side rail (9014) and the bottom support frame (9015) slide, and the bottom support frame (9015) is used to support the sliding side rail (9014). Continuous rotation of the bottom transmission cylinder (9012) drives the inner cleaning brush (9013) to rotate.

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