A proportional measuring device for concrete processing

Abstract

The invention relates to the field of construction, and in particular to a concrete processing equal-proportional measuring device, comprising a measuring cylinder, a filling bin, a filling channel, a vibration motor, a leg, a filling mechanism, an adjusting mechanism, and a mixing mechanism. The filling mechanism is installed inside the measuring cylinder, and the filling mechanism can measure and output the material in the measuring cylinder in equal volumes; the adjusting mechanism is installed at the bottom of the measuring cylinder, and the adjusting mechanism can adjust the volume of the material discharged at a single time; the mixing mechanism is installed on the outer surface of the measuring cylinder, and the mixing mechanism can mix a variety of materials. The invention can simultaneously complete the volume measurement and uniform mixing of a variety of materials through the above mechanisms, avoiding the workers using measuring tools to measure the volume of the materials, and outputting the materials in equal volumes in batches, which is conducive to the uniform mixing of the materials.

Description

Technical Field

[0001] The invention relates to the field of construction, in particular to a concrete processing proportional measuring device. Background Art

[0002] Concrete is a general term for engineering composite materials that are made of aggregates bonded together by cementitious materials. Usually, concrete refers to cement as a cementitious material, sand and stone as aggregates, and water (which may contain admixtures and additives) mixed in a certain proportion. The cement concrete obtained by mixing is also called ordinary concrete. It is a material widely used in civil engineering and other fields.

[0003] The traditional concrete processing process requires workers to strictly control the proportion of raw materials. Usually, volume measurement or weight control is used to measure the volume or weight of raw materials, and then mix them together for sufficient stirring. This method has the following disadvantages: 1. The measurement of volume or weight requires different measuring tools, which is cumbersome and inefficient. 2. Workers need to calculate the amount of raw materials according to the amount of concrete used, which increases the difficulty of work and is prone to calculation errors. 3. The mixing and stirring effect of large quantities of raw materials is difficult to guarantee, which can easily cause problems such as uneven mixing or long processing time, affecting work efficiency. Summary of the invention

[0004] The technical problem to be solved by the present invention is to provide a concrete processing equipment that can adapt to different proportions, automatically realize the proportional addition of materials, and ensure uniform mixing of materials, so as to solve the technical problems of low measurement efficiency, cumbersome calculations and unguaranteed mixing effect.

[0005] The invention discloses a concrete processing proportional measuring device, comprising a measuring cylinder, a filling bin, a filling channel, a vibration motor, a support leg, a filling mechanism, an adjustment mechanism, and a mixing mechanism.

[0006] The top end of the measuring cylinder is connected and communicated with one end of the plurality of filling channels, the other end of the filling channel is fixedly connected and communicated with the bottom of the filling bin, a plurality of the vibration motors are evenly fixed on the outer surface of the measuring cylinder along the circumferential direction, and a plurality of the legs are fixedly installed on the bottom of the measuring cylinder;

[0007] The filling mechanism is installed inside the measuring cylinder, and the filling mechanism measures and outputs the material in the measuring cylinder in equal volumes;

[0008] The regulating mechanism is installed at the bottom of the measuring cylinder, and the regulating mechanism can adjust the volume of the material discharged in a single time;

[0009] The mixing mechanism is installed on the outer surface of the measuring cylinder, and the mixing mechanism can mix a variety of materials.

[0010] The present invention provides a concrete processing proportional measurement device, wherein

[0011] The filling mechanism includes a motor, a driving wheel, a driving pin, a first groove, a second groove, an intermittent wheel, a third groove, a first rotating shaft, a spacer plate, a bottom plate, a through hole, and a discharge channel;

[0012] The bottom of the filling bin is fixedly connected to the motor, the output shaft of the motor is coaxially fixed to the driving wheel, one side of the driving wheel is fixedly connected to the driving pin shaft, the first groove is provided on the side of the driving wheel close to the driving pin shaft, the outer surface of the driving wheel overlaps the second groove, a plurality of the second grooves are uniformly provided on the intermittent wheel along the circumferential direction, the driving pin shaft is intermittently arranged in the third groove and moves along the third groove, a plurality of the third grooves are uniformly provided on the intermittent wheel along the circumferential direction, and the third grooves and the second grooves are arranged at intervals;

[0013] The intermittent wheel is coaxially fixed to one end of the first rotating shaft, the first rotating shaft is rotatably connected to the top of the measuring cylinder, the other end of the first rotating shaft is circumferentially connected to multiple spacer plates, the outer circumferential surface of the spacer plate overlaps the inner surface of the measuring cylinder, the spacer plate is rotatably connected to the bottom plate, the bottom plate is connected to the inner surface of the measuring cylinder, the through hole is opened on the bottom plate, and the through hole is fixedly connected and communicated with one end of the discharge channel.

[0014] The present invention provides a concrete processing proportional measurement device, wherein

[0015] The adjustment mechanism includes a first turntable, a plate sleeve, a threaded rod, a nut, a support rod, a first bevel gear, a second bevel gear, a rotating rod, a driving rod, a rocker, a guide rod, a guide sleeve, and a second turntable;

[0016] The middle part of the first rotating shaft is coaxially fixed with the first rotating disk, the first rotating disk is coaxially arranged at the top of the measuring cylinder and is rotatably sealed and connected to the top of the measuring cylinder, a plurality of the plate sleeves are evenly fixed along the circumferential direction at the other end of the first rotating shaft, the top of the plate sleeve overlaps the upper surface of the interior of the measuring cylinder, the plate sleeve is sealed and configured with the spacer plate moving along it, the lower end surface of the spacer plate is coaxially fixed with the second rotating disk, the second rotating disk is rotatably sealed and connected to the bottom plate, the outer surface of the bottom plate is sealed and overlaps the inner surface of the measuring cylinder, the lower surface of the bottom plate is fixedly connected to one end of a plurality of the guide rods, the guide rods are arranged in the guide sleeve and move along it, and the guide sleeve is fixedly connected to the outer surface of the measuring cylinder;

[0017] The lower end surface of the base plate is coaxially fixed to one end of the threaded rod, the threaded rod is threadedly connected to the nut, the nut is mounted on the support rod through a bearing, the support rod is fixedly connected to the inner surface of the measuring cylinder, the nut is coaxially fixed to the first bevel gear, the first bevel gear is meshed with the second bevel gear, the second bevel gear is coaxially fixed to one end of the rotating rod, the rotating rod passes through the measuring cylinder and is mounted on the measuring cylinder through a bearing, the other end of the rotating rod is fixedly connected to one end of the driving rod, and the other end of the driving rod is fixedly connected to one end of the rocking arm.

[0018] The present invention provides a concrete processing proportional measurement device, wherein

[0019] The mixing mechanism includes a first pulley, a transmission belt, a second pulley, a mixing rod, a mixing barrel, a feeding channel, a stirring blade, a diversion pipeline, and a discharge pipeline;

[0020] The output shaft of the motor is coaxially fixed with the first pulley, the first pulley is connected to the second pulley through the transmission belt, the second pulley is coaxially fixed with one end of the mixing rod, the mixing rod is rotatably sealed with the top of the mixing barrel, the outer surface of the lower part of the mixing rod is coaxially fixed with the stirring blade, the stirring blade is arranged in the mixing barrel, and the outer surface of the stirring blade overlaps the inner surface of the mixing barrel;

[0021] The bottom of the side of the mixing barrel is fixedly connected and communicated with one end of the feed channel, the other end of the feed channel is sealed and arranged outside the discharge channel and moves along it, the top of the side of the mixing barrel is fixedly connected and communicated with one end of the plurality of diversion pipes, and the other end of the diversion pipe is fixedly connected and communicated with the side of the discharge pipe;

[0022] The structure consisting of the filling mechanism, the regulating mechanism and the feeding channel is evenly distributed in multiple groups about the axis of the mixing barrel.

[0023] The present invention provides a concrete processing proportional measuring device, wherein a connecting line between the center of the driving wheel and the center of the driving pin coincides with a bisector of the first groove.

[0024] The present invention provides a concrete processing proportional measuring device, wherein the bisector of the bottom plate coincides with the bisector of one of the second grooves.

[0025] The invention provides a concrete processing proportional measuring device, wherein the number of the spacer plates is equal to the number of the third grooves, and the bisector of the spacer plates is aligned with the bisector of the third grooves in the upper and lower directions.

[0026] The invention discloses a concrete processing proportional measuring device, wherein the cross-sectional shape of the guide rod is square, and the cross-sectional shape of the inner surface of the guide sleeve is in a direction matching the cross-sectional shape of the guide rod.

[0027] The difference between the concrete processing proportional measuring device of the present invention and the prior art is that: 1. The concrete processing proportional measuring device of the present invention can automatically realize the proportional addition of multiple materials, avoiding workers from performing measurement operations, improving work efficiency and reducing the risk of errors; 2. The volume adjustment of a single discharge is achieved through an adjustment mechanism, so that the device can meet the requirements of the use of multiple proportions and material ratios; 3. By discharging materials in batches in equal proportions, effective mixing of materials is achieved, ensuring that the mixing of materials is more uniform.

[0028] The following is a further description of a concrete processing proportional measuring device of the present invention in conjunction with the accompanying drawings. BRIEF DESCRIPTION OF THE DRAWINGS

[0029] Figure 1 It is an axonometric view of a scaled measuring device for concrete processing;

[0030] Figure 2 yes Figure 1 A front view of a concrete processing proportional measuring device is shown;

[0031] Figure 3 yes Figure 2 A front cross-sectional view of a concrete processing proportional measuring device is shown;

[0032] Figure 4 is along Figure 2 Sectional view of the mid-CC line;

[0033] Figure 5 is along Figure 2 Sectional view along line AA;

[0034] Figure 6 is along Figure 2 Cross-sectional view along line BB.

[0035] Description of reference numerals:

[0036] 101, measuring cylinder; 102, filling bin; 103, filling channel; 104, vibration motor; 105, supporting leg; 200, filling mechanism; 201, motor; 202, driving wheel; 203, driving pin; 204, first groove; 205, second groove; 206, intermittent wheel; 207, third groove; 208, first rotating shaft; 209, partition plate; 210, bottom plate; 211, through hole; 212, discharging channel; 300, adjusting mechanism; 301, first rotating disk; 302, plate sleeve; 30 3. Threaded rod; 304. Nut; 305. Support rod; 306. First bevel gear; 307. Second bevel gear; 308. Rotating rod; 309. Driving rod; 310. Rocker; 311. Guide rod; 312. Guide sleeve; 313. Second turntable; 400. Mixing mechanism; 401. First pulley; 402. Transmission belt; 403. Second pulley; 404. Mixing rod; 405. Mixing barrel; 406. Feed channel; 407. Stirring blade; 408. Diversion pipe; 409. Discharge pipe; DETAILED DESCRIPTION

[0037] like Figures 1 to 6 As shown, a concrete processing proportional measuring device of the present invention includes a measuring cylinder 101, a filling bin 102, a filling channel 103, a vibration motor 104, a leg 105, a filling mechanism 200, an adjustment mechanism 300, and a mixing mechanism 400.

[0038] The top end of the measuring cylinder 101 is connected and communicated with one end of the plurality of filling channels 103, and the other end of the filling channels 103 is fixedly connected and communicated with the bottom of the filling bin 102. The outer surface of the measuring cylinder 101 is evenly fixed with a plurality of the vibration motors 104 along the circumferential direction, and the bottom of the measuring cylinder 101 is fixedly installed with a plurality of the legs 105.

[0039] The filling mechanism 200 is installed inside the measuring cylinder 101, and the filling mechanism 200 measures and outputs the material in the measuring cylinder 101 in equal volumes;

[0040] The adjusting mechanism 300 is installed at the bottom of the measuring cylinder 101, and the adjusting mechanism 300 can adjust the volume of the material discharged in a single time;

[0041] The mixing mechanism 400 is installed on the outer surface of the measuring cylinder 101 , and the mixing mechanism 400 can mix a variety of materials.

[0042] In the present invention, the material in the filling bin 102 enters the measuring cylinder 101 through the multiple filling channels 103, and is evenly divided into multiple portions in the measuring cylinder 101 through the filling mechanism 200 under the vibration of the vibration motor 104, and the volume of each portion is ensured to be the same, so that the volume of the material discharged from the measuring cylinder 101 each time is equal. In this process, the volume of the material discharged from the measuring cylinder 101 each time can be adjusted by the adjustment mechanism 300, and the finally discharged material is evenly mixed by the mixing mechanism 400. Therefore, the above mechanism can simultaneously complete the volume measurement and uniform mixing of multiple materials, avoiding the workers using measuring tools to measure the volume of the materials, and outputting the materials in batches of equal volume, which is conducive to the uniform mixing of the materials.

[0043] Among them, the installation, driving and control methods of the vibration motor 104 are existing technologies and will not be repeated here.

[0044] For further explanation of the present invention, see Figure 3 , 5 , 6;

[0045] The filling mechanism 200 includes a motor 201, a driving wheel 202, a driving pin 203, a first groove 204, a second groove 205, an intermittent wheel 206, a third groove 207, a first rotating shaft 208, a spacer plate 209, a bottom plate 210, a through hole 211, and a discharge channel 212;

[0046] The bottom of the filling bin 102 is fixedly connected to the motor 201, the output shaft of the motor 201 is coaxially fixed to the driving wheel 202, one side of the driving wheel 202 is fixedly connected to the driving pin 203, the first groove 204 is provided on the side of the driving wheel 202 close to the driving pin 203, the outer surface of the driving wheel 202 overlaps the second groove 205, a plurality of the second grooves 205 are uniformly provided on the intermittent wheel 206 along the circumferential direction, the driving pin 203 is intermittently arranged in the third groove 207 and moves along it, a plurality of the third grooves 207 are uniformly provided on the intermittent wheel 206 along the circumferential direction, and the third grooves 207 and the second grooves 205 are spaced apart;

[0047] The intermittent wheel 206 is coaxially fixed to one end of the first rotating shaft 208, the first rotating shaft 208 is rotatably connected to the top of the measuring cylinder 101, the other end of the first rotating shaft 208 is circumferentially connected to multiple spacer plates 209, the outer circumferential surface of the spacer plate 209 overlaps the inner surface of the measuring cylinder 101, the spacer plate 209 is rotatably connected to the bottom plate 210, the bottom plate 210 is connected to the inner surface of the measuring cylinder 101, the bottom plate 210 is provided with the through hole 211, and the through hole 211 is fixedly connected and communicated with one end of the discharge channel 212.

[0048] In the present invention, the motor 201 drives the driving wheel 202 to rotate through the output shaft. When the outer surface of the driving wheel 202 overlaps with the second groove 205, the intermittent wheel 206 does not rotate. When the driving pin 203 begins to be arranged in the third groove 207, the intermittent wheel 206 starts to be driven to rotate until the next second groove 205 overlaps with the outer surface of the driving wheel 202. Therefore, the motor 201 drives the intermittent rotation of the intermittent wheel 206 and further drives the intermittent rotation of the partition plate 209 through the first rotating shaft 208. In this process The enclosed space formed by the partition plate 209, the bottom plate 210 and the measuring cylinder 101 is connected to the filling bin 102 through the filling channel 103. Therefore, under the vibration of the vibration motor 104, the material in the filling bin 102 continuously enters the enclosed space through the filling channel 103 to fill the enclosed space. During the intermittent rotation of the partition plate 209, the enclosed space is gradually filled until the interval of the partition plate 209 is aligned with the bottom plate 210. Under the action of gravity, the material in the enclosed space is discharged outward through the bottom plate 210 and the through hole 211.

[0049] The present invention uses the above structure to ensure that the volume of material discharged outward through the bottom plate 210 and the through hole 211 each time is equal to the volume of the enclosed space formed by the partition plate 209, the bottom plate 210 and the measuring cylinder 101, thereby avoiding the need for workers to measure the volume of added materials. The above mechanism is used to achieve batch output of materials, which facilitates further material mixing.

[0050] The number of the second grooves 205 and the number of the third grooves 207 are equal, and the number can be 4, 5, 6, 7 or more, preferably 5.

[0051] As one of the embodiments of the present invention, the other end of the first rotating shaft 208 is fixedly connected to a plurality of the spacer plates 209, and the plurality of the spacer plates 209 are evenly distributed along the circumference of the first rotating shaft 208, the upper end surface of the spacer plate 209 is sealed and overlapped with the top of the measuring cylinder 101, the lower end surface of the spacer plate 209 is sealed and overlapped with the upper surface of the bottom plate 210, and the bottom plate 210 is fixedly connected to the inner surface of the measuring cylinder 101.

[0052] For further explanation of the present invention, see Figures 1 to 4 ,

[0053] The adjustment mechanism 300 includes a first rotating disk 301, a plate sleeve 302, a threaded rod 303, a nut 304, a support rod 305, a first bevel gear 306, a second bevel gear 307, a rotating rod 308, a driving rod 309, a rocker 310, a guide rod 311, a guide sleeve 312, and a second rotating disk 313;

[0054] The middle part of the first rotating shaft 208 is coaxially fixed with the first rotating disk 301, the first rotating disk 301 is coaxially arranged at the top of the measuring cylinder 101 and is rotatably sealed and connected to the top of the measuring cylinder 101, a plurality of the plate sleeves 302 are evenly fixed along the circumferential direction at the other end of the first rotating shaft 208, the top of the plate sleeve 302 overlaps the upper surface of the inside of the measuring cylinder 101, the plate sleeve 302 is sealed and configured with the spacer plate 209 moving along it, the lower end surface of the spacer plate 209 is coaxially fixed with the second rotating disk 313, the second rotating disk 313 is rotatably sealed and connected to the bottom plate 210, the outer surface of the bottom plate 210 is sealed and overlapped with the inner surface of the measuring cylinder 101, the lower surface of the bottom plate 210 is fixedly connected to one end of a plurality of the guide rods 311, the guide rods 311 are arranged in the guide sleeve 312 and move along it, and the guide sleeve 312 is fixedly connected to the outer surface of the measuring cylinder 101;

[0055] The lower end surface of the base plate 210 is coaxially fixed to one end of the threaded rod 303, the threaded rod 303 is threadedly connected to the nut 304, the nut 304 is mounted on the support rod 305 through a bearing, the support rod 305 is fixedly connected to the inner surface of the measuring cylinder 101, the nut 304 is coaxially fixed to the first bevel gear 306, the first bevel gear 306 is meshed with the second bevel gear 307, the second bevel gear 307 is coaxially fixed to one end of the rotating rod 308, the rotating rod 308 passes through the measuring cylinder 101 and is mounted on the measuring cylinder 101 through a bearing, the other end of the rotating rod 308 is fixedly connected to one end of the driving rod 309, and the other end of the driving rod 309 is fixedly connected to one end of the rocking arm 310.

[0056] In the present invention, the operator can shake the rocker 310 to make the driving rod 309 rotate around the axis of the rotating rod 308. At this time, the meshing relationship between the second bevel gear 307 and the first bevel gear 306 further drives the synchronous rotation of the first bevel gear 306 and the nut 304. The threaded connection relationship between the nut 304 and the threaded rod 303, and the configuration relationship between the guide rod 311 and the guide sleeve 312 drive the base plate 210 to move up and down along the height direction of the measuring cylinder 101, that is, the spacer plate 209 is driven to move up and down along the height direction of the plate sleeve 302 at the same time, thereby realizing the adjustment of the volume size of the enclosed space composed of the base plate 210, the measuring cylinder 101, the spacer plate 209 and the plate sleeve 302, so that the above-mentioned device can meet the requirements of batching of various proportions and various materials.

[0057] There are multiple groups of structures composed of the guide rods 311 and the guide sleeves 312 symmetrically distributed about the axis center of the measuring cylinder 101 .

[0058] The contour of the guide rod 311 is N-shaped. The purpose of the present invention is to avoid interference between the guide rod 311 and the side wall of the measuring tube 101 , while ensuring the guiding effect of the guide sleeve 312 on the guide rod 311 and the base plate 210 .

[0059] For further explanation of the present invention, see Figures 1 to 3 ,

[0060] The mixing mechanism 400 includes a first pulley 401, a transmission belt 402, a second pulley 403, a mixing rod 404, a mixing barrel 405, a feeding channel 406, a stirring blade 407, a diversion pipeline 408, and a discharge pipeline 409;

[0061] The output shaft of the motor 201 is coaxially fixed with the first pulley 401, the first pulley 401 is connected to the second pulley 403 through the transmission belt 402, the second pulley 403 is coaxially fixed with one end of the mixing rod 404, the mixing rod 404 is rotatably sealed with the top of the mixing barrel 405, the outer surface of the lower part of the mixing rod 404 is coaxially fixed with the stirring blade 407, the stirring blade 407 is arranged in the mixing barrel 405, and the outer surface of the stirring blade 407 overlaps the inner surface of the mixing barrel 405;

[0062] The bottom of the side of the mixing barrel 405 is fixedly connected and communicated with one end of the feed channel 406, the other end of the feed channel 406 is sealed and arranged outside the discharge channel 212 and moves along it, the top of the side of the mixing barrel 405 is fixedly connected and communicated with one end of the plurality of diverter pipes 408, the other end of the diverter pipe 408 is fixedly connected and communicated with the side of the discharge pipe 409;

[0063] The structure consisting of the filling mechanism 200 , the adjusting mechanism 300 , and the feeding channel 406 is evenly distributed in multiple groups about the axis of the mixing barrel 405 .

[0064] The motor 201 in the present invention drives the first pulley 401 to rotate synchronously, and drives the second pulley 403 and the mixing rod 404 to rotate synchronously through the belt transmission connection relationship among the first pulley 401, the transmission belt 402, and the second pulley 403. The mixing rod 404 further drives the stirring blade 407 to rotate, and the material transported to the bottom of the mixing barrel 405 through the discharge channel 212 and the feed channel 406 is stirred and mixed in the mixing barrel 405. In addition, due to the configuration relationship between the stirring blade 407 and the mixing barrel 405, the material is lifted upward along the height direction of the mixing barrel 405. When the material is lifted to the height of one end of the diverter pipe 408, it is discharged outwardly through the diverter pipe 408, and through the other end of the multiple diverter pipes 408, the material is further mixed in the discharge pipe 409 and output outwardly along the discharge pipe 409.

[0065] Among them, the lower side of the feed channel 406 is inclined, and its inclination direction is from top to bottom, from away from the mixing barrel 405 to close to the mixing barrel 405. The purpose of the present invention is that the material discharged outward through the discharge channel 212 can smoothly slide along the feed channel 406 to the bottom of the mixing barrel 405.

[0066] Among them, the diversion pipe 408 is arranged at an angle, and its inclination direction is from top to bottom, from close to the mixing barrel 405 to away from the mixing barrel 405. The purpose of the present invention is that when the stirring blade 407 lifts the material upward to the height position of one end of the diversion pipe 408, the material can slide out quickly along the diversion pipe 408 under the action of gravity.

[0067] For further explanation of the present invention, see Figures 1 to 6 ,

[0068] The connecting line between the center of the driving wheel 202 and the center of the driving pin shaft 203 coincides with the bisector of the first groove 204 .

[0069] The purpose of the present invention is that when the driving pin 203 begins to be configured in the third groove 207 and drives the intermittent wheel 206 to rotate, the first groove 204 can just avoid the intermittent wheel 206, avoiding interference between the driving wheel 202 and the intermittent wheel 206, thereby realizing the intermittent rotation of the intermittent wheel 206.

[0070] The bisector of the bottom plate 210 coincides with the bisector of one of the second grooves 205 .

[0071] The purpose of the present invention is to facilitate the outflow of materials when the corresponding second groove 205 overlaps with the outer surface of the driving wheel 202.

[0072] The number of the spacers 209 is equal to the number of the third grooves 207 , and the bisector of the spacers 209 is aligned with the bisector of the third grooves 207 in the vertical direction.

[0073] The cross-sectional shape of the guide rod 311 is a square, and the cross-sectional shape of the inner surface of the guide sleeve 312 is in a direction matching the cross-sectional shape of the guide rod 311 .

[0074] The purpose of the present invention is that the guiding sleeve 312 guides the guide rod 311 so that the bottom plate 210 will not rotate relative to the measuring cylinder 101 during the up and down movement.

[0075] The embodiments described above are merely descriptions of preferred implementation modes of the present invention and are not intended to limit the scope of the present invention. Without departing from the design spirit of the present invention, various modifications and improvements made to the technical solutions of the present invention by ordinary technicians in this field should all fall within the protection scope determined by the claims of the present invention.

Claims

1. A concrete processing proportional measuring device, comprising a measuring cylinder (101), a filling bin (102), a filling channel (103), a vibration motor (104), a support leg (105), a filling mechanism (200), an adjustment mechanism (300), and a mixing mechanism (400), characterized in that: The top end of the measuring cylinder (101) is connected to and communicates with one end of the plurality of filling channels (103), the other end of the filling channels (103) is fixedly connected to and communicates with the bottom of the filling bin (102), the outer surface of the measuring cylinder (101) is evenly fixed with a plurality of the vibration motors (104) along the circumferential direction, and the bottom of the measuring cylinder (101) is fixedly mounted with a plurality of the supporting legs (105); The filling mechanism (200) is installed inside the measuring cylinder (101), and the filling mechanism (200) measures and outputs the material in the measuring cylinder (101) in equal volumes; The adjusting mechanism (300) is installed at the bottom of the measuring cylinder (101), and the adjusting mechanism (300) is capable of adjusting the volume of material discharged at a single time; The mixing mechanism (400) is installed on the outer surface of the measuring cylinder (101), and the mixing mechanism (400) is capable of mixing multiple materials; The filling mechanism (200) comprises a motor (201), a driving wheel (202), a driving pin shaft (203), a first groove (204), a second groove (205), an intermittent wheel (206), a third groove (207), a first rotating shaft (208), a spacer plate (209), a bottom plate (210), a through hole (211), and a discharge channel (212); The bottom of the filling bin (102) is fixedly connected to the motor (201), the output shaft of the motor (201) is coaxially fixed to the driving wheel (202), one side of the driving wheel (202) is fixedly connected to the driving pin shaft (203), the first groove (204) is provided on the side of the driving wheel (202) close to the driving pin shaft (203), the outer surface of the driving wheel (202) overlaps the second groove (205), a plurality of the second grooves (205) are uniformly provided on the intermittent wheel (206) along the circumferential direction, the driving pin shaft (203) is intermittently arranged in the third groove (207) and moves along the third groove (207), a plurality of the third grooves (207) are uniformly provided on the intermittent wheel (206) along the circumferential direction, and the third grooves (207) and the second grooves (205) are arranged at intervals; The intermittent wheel (206) is coaxially fixed to one end of the first rotating shaft (208); the first rotating shaft (208) is rotatably connected to the top of the measuring cylinder (101); the other end of the first rotating shaft (208) is circumferentially connected to a plurality of the spacer plates (209); the outer circumferential surface of the spacer plates (209) overlaps the inner surface of the measuring cylinder (101); the spacer plates (209) are rotatably connected to the bottom plate (210); the bottom plate (210) is connected to the inner surface of the measuring cylinder (101); the bottom plate (210) is provided with the through hole (211); the through hole (211) is fixedly connected to and communicates with one end of the discharge channel (212); The adjustment mechanism (300) comprises a first rotating disk (301), a plate sleeve (302), a threaded rod (303), a nut (304), a support rod (305), a first bevel gear (306), a second bevel gear (307), a rotating rod (308), a driving rod (309), a rocker (310), a guide rod (311), a guide sleeve (312), and a second rotating disk (313); The middle part of the first rotating shaft (208) is coaxially fixed with the first rotating disk (301), the first rotating disk (301) is coaxially arranged at the top of the measuring cylinder (101) and is rotatably sealed and connected to the top of the measuring cylinder (101), a plurality of plate sleeves (302) are evenly fixed along the circumferential direction at the other end of the first rotating shaft (208), the top of the plate sleeve (302) overlaps the upper surface of the inside of the measuring cylinder (101), the plate sleeve (302) is sealed with the spacer plate (209) moving along it, and the The lower end surface of the partition plate (209) is coaxially fixed to the second rotating disk (313); the second rotating disk (313) is rotatably sealed and connected to the bottom plate (210); the outer surface of the bottom plate (210) is sealed and overlapped with the inner surface of the measuring cylinder (101); the lower surface of the bottom plate (210) is fixedly connected to one end of a plurality of guide rods (311); the guide rods (311) are arranged in the guide sleeves (312) and move along the guide sleeves (312); and the guide sleeves (312) are fixedly connected to the outer surface of the measuring cylinder (101); The lower end surface of the base plate (210) is coaxially fixed to one end of the threaded rod (303); the threaded rod (303) is threadedly connected to the nut (304); the nut (304) is mounted on the support rod (305) via a bearing; the support rod (305) is fixedly connected to the inner surface of the measuring cylinder (101); the nut (304) is coaxially fixed to the first bevel gear (306); the first bevel gear (306) is meshed with the second bevel gear (307); the second bevel gear (307) is coaxially fixed to one end of the rotating rod (308); the rotating rod (308) passes through the measuring cylinder (101) and is mounted on the measuring cylinder (101) via a bearing; the other end of the rotating rod (308) is fixedly connected to one end of the driving rod (309); and the other end of the driving rod (309) is fixedly connected to one end of the rocking arm (310).

2. A concrete processing proportional measuring device according to claim 1, characterized in that: The mixing mechanism (400) comprises a first pulley (401), a transmission belt (402), a second pulley (403), a mixing rod (404), a mixing barrel (405), a feeding channel (406), a stirring blade (407), a diversion pipeline (408), and a discharge pipeline (409); The output shaft of the motor (201) is coaxially fixed to the first pulley (401); the first pulley (401) is connected to the second pulley (403) through the transmission belt (402); the second pulley (403) is coaxially fixed to one end of the mixing rod (404); the mixing rod (404) is rotatably sealed to the top of the mixing barrel (405); the outer surface of the lower part of the mixing rod (404) is coaxially fixed to the stirring blade (407); the stirring blade (407) is arranged in the mixing barrel (405); and the outer surface of the stirring blade (407) overlaps the inner surface of the mixing barrel (405); The bottom of the side of the mixing barrel (405) is fixedly connected to and communicated with one end of the feed channel (406), the other end of the feed channel (406) is sealed and arranged outside the discharge channel (212) and moves along it, the top of the side of the mixing barrel (405) is fixedly connected to and communicated with one end of the plurality of diverter pipes (408), and the other end of the diverter pipe (408) is fixedly connected to and communicated with the side of the discharge pipe (409); The structure composed of the filling mechanism (200), the adjustment mechanism (300), and the feeding channel (406) is evenly distributed in multiple groups about the axis of the mixing barrel (405).

3. A concrete processing proportional measuring device according to claim 2, characterized in that: A connecting line between the center of the driving wheel (202) and the center of the driving pin shaft (203) coincides with a bisector of the first groove (204).

4. A concrete processing proportional measuring device according to claim 3, characterized in that: The bisector of the bottom plate (210) coincides with the bisector of one of the second grooves (205).

5. A concrete processing proportional measuring device according to claim 4, characterized in that: The number of the spacer plates (209) is equal to the number of the third grooves (207), and the bisector of the spacer plates (209) is aligned vertically with the bisector of the third grooves (207).

6. A concrete processing proportional measurement device according to claim 5, characterized in that: The cross-sectional shape of the guide rod (311) is square, and the cross-sectional shape of the inner surface of the guide sleeve (312) is in a direction matching the cross-sectional shape of the guide rod (311).

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