CN111873166B - Automatic hollow slab manufacturing equipment - Google Patents
Automatic hollow slab manufacturing equipment Download PDFInfo
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- CN111873166B CN111873166B CN202010816418.5A CN202010816418A CN111873166B CN 111873166 B CN111873166 B CN 111873166B CN 202010816418 A CN202010816418 A CN 202010816418A CN 111873166 B CN111873166 B CN 111873166B
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- walking
- discharging
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- 238000004519 manufacturing process Methods 0.000 title abstract description 9
- 230000006835 compression Effects 0.000 claims abstract description 42
- 238000007906 compression Methods 0.000 claims abstract description 42
- 238000007599 discharging Methods 0.000 claims description 79
- 230000005540 biological transmission Effects 0.000 claims description 57
- 230000008859 change Effects 0.000 claims description 33
- 238000003825 pressing Methods 0.000 claims description 26
- 238000002360 preparation method Methods 0.000 claims description 2
- 239000004567 concrete Substances 0.000 abstract description 31
- 238000005056 compaction Methods 0.000 abstract description 7
- 239000000463 material Substances 0.000 abstract description 3
- 230000009467 reduction Effects 0.000 abstract description 3
- 238000000034 method Methods 0.000 abstract description 2
- 238000005457 optimization Methods 0.000 description 4
- 230000009471 action Effects 0.000 description 2
- 238000007789 sealing Methods 0.000 description 2
- 230000001629 suppression Effects 0.000 description 2
- 238000007792 addition Methods 0.000 description 1
- 230000009286 beneficial effect Effects 0.000 description 1
- 238000010586 diagram Methods 0.000 description 1
- 238000001035 drying Methods 0.000 description 1
- 230000005484 gravity Effects 0.000 description 1
- 230000004048 modification Effects 0.000 description 1
- 238000012986 modification Methods 0.000 description 1
- 238000003756 stirring Methods 0.000 description 1
- 238000006467 substitution reaction Methods 0.000 description 1
- 238000003466 welding Methods 0.000 description 1
Images
Classifications
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- B—PERFORMING OPERATIONS; TRANSPORTING
- B28—WORKING CEMENT, CLAY, OR STONE
- B28B—SHAPING CLAY OR OTHER CERAMIC COMPOSITIONS; SHAPING SLAG; SHAPING MIXTURES CONTAINING CEMENTITIOUS MATERIAL, e.g. PLASTER
- B28B15/00—General arrangement or layout of plant ; Industrial outlines or plant installations
-
- B—PERFORMING OPERATIONS; TRANSPORTING
- B28—WORKING CEMENT, CLAY, OR STONE
- B28B—SHAPING CLAY OR OTHER CERAMIC COMPOSITIONS; SHAPING SLAG; SHAPING MIXTURES CONTAINING CEMENTITIOUS MATERIAL, e.g. PLASTER
- B28B1/00—Producing shaped prefabricated articles from the material
- B28B1/08—Producing shaped prefabricated articles from the material by vibrating or jolting
- B28B1/087—Producing shaped prefabricated articles from the material by vibrating or jolting by means acting on the mould ; Fixation thereof to the mould
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- B—PERFORMING OPERATIONS; TRANSPORTING
- B28—WORKING CEMENT, CLAY, OR STONE
- B28B—SHAPING CLAY OR OTHER CERAMIC COMPOSITIONS; SHAPING SLAG; SHAPING MIXTURES CONTAINING CEMENTITIOUS MATERIAL, e.g. PLASTER
- B28B17/00—Details of, or accessories for, apparatus for shaping the material; Auxiliary measures taken in connection with such shaping
-
- B—PERFORMING OPERATIONS; TRANSPORTING
- B28—WORKING CEMENT, CLAY, OR STONE
- B28B—SHAPING CLAY OR OTHER CERAMIC COMPOSITIONS; SHAPING SLAG; SHAPING MIXTURES CONTAINING CEMENTITIOUS MATERIAL, e.g. PLASTER
- B28B3/00—Producing shaped articles from the material by using presses; Presses specially adapted therefor
- B28B3/12—Producing shaped articles from the material by using presses; Presses specially adapted therefor wherein one or more rollers exert pressure on the material
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- Engineering & Computer Science (AREA)
- Chemical & Material Sciences (AREA)
- Ceramic Engineering (AREA)
- Mechanical Engineering (AREA)
- Manufacturing & Machinery (AREA)
- Transmission Devices (AREA)
Abstract
The invention relates to the field of buildings, in particular to automatic hollow slab manufacturing equipment, which is an indispensable material in some projects in modern buildings although the requirements of hollow precast slabs are reduced compared with the prior art, the equipment is designed under the background that the automation degree of the equipment is improved, the maximum reduction cost of manpower under the limited requirements is reduced, based on the reasons, different gears are selected by controlling a gear lever to respectively control a hopper to advance, retreat, discharge and stop discharge, the hopper discharges concrete and then repeatedly paves and compacts the concrete by a compression roller, the thicker the concrete pavement is, the higher the pressure of the compression roller on the concrete is, a hollow mould can slightly vibrate in the concrete compaction process, so that fine gaps among the concrete disappear and then are flattened by the compression roller, and after the hollow slab compaction is completed, the control equipment can push the hollow slabs out of a compaction chamber and continue to be compacted, the length of each hollow plate can be easily adjusted.
Description
Technical Field
The invention relates to the field of buildings, in particular to automatic hollow slab manufacturing equipment.
Background
In modern buildings, although the demand for hollow prefabricated panels has been reduced compared to the previous ones, it is still an indispensable material for some projects, in which context the increase of the automation level of the plant, the reduction of the labour, and the maximum reduction of the costs in the limited demand, have been devised for the above reasons.
Disclosure of Invention
The invention aims to provide automatic hollow slab manufacturing equipment, which can freely control the length of a hollow slab, automatically finish discharging and stop discharging by controlling, automatically compact concrete, and reduce gaps among the concrete by vibrating a mould.
The purpose of the invention is realized by the following technical scheme:
the utility model provides an automatic hollow slab preparation equipment, includes walking assembly, ejection of compact assembly, control assembly and mould vibration assembly, ejection of compact assembly, control assembly, mould vibration assembly all are connected with walking assembly, and ejection of compact assembly is connected with the control assembly.
As a further optimization of the technical scheme, the walking assembly comprises a bottom plate, a pressing chamber, a sliding support, a motor I shaft, a walking transmission case upper cover, a turning gear I, a gear II, a turning control lever, a turning control chute, a turning control support, a ball stirring I, a ball groove sleeve I, a sliding gear I chute, a sliding gear I shaft, a bevel gear I, a bevel gear II shaft, a belt wheel I, a belt I, a walking wheel shaft and walking wheels, wherein the bottom plate is connected with the pressing chamber, the sliding support is in sliding connection with the pressing chamber, the motor I is connected with the motor I shaft, the motor I shaft is in rotating connection with the walking transmission case, the walking transmission case is connected with the sliding support, the walking transmission case upper cover is connected with the walking transmission case, the shaft of a motor I is connected with a direction changing gear I and a gear I, the gear I is meshed with a gear II, the gear II is connected with a gear II, the gear II is rotatably connected with a walking transmission box, the direction changing gear II is connected with a gear II, a direction changing control rod is connected with a direction changing control support, the direction changing control rod is hinged with an upper cover of the walking transmission box, the direction changing control chute is positioned on the direction changing control rod, the direction changing control support is connected with two shifting balls I, the two shifting balls I are both in sliding connection with a ball groove of a ball groove sleeve I, the ball groove sleeve I is connected with a sliding gear I, the sliding gear I is in sliding connection with a sliding gear I chute, the sliding gear I chute is positioned on the shaft of the sliding gear I, the shaft of the sliding gear I is rotatably connected with the walking transmission box, the shaft of the sliding gear I is connected with a bevel gear I, the bevel gear I is meshed with the bevel gear II, the bevel gear II is connected with the shaft of the bevel gear II, II axles of bevel gear rotate with the sliding support and are connected, II axles of bevel gear are connected with a band pulley I, and two band pulleys I pass through belt I and connect, and a band pulley I is connected with a walking axle, and three walking wheel axle all rotates with the sliding support to be connected, and three walking wheel axle, II axles of bevel gear are connected with four walking wheels respectively, and four walking wheels all contact with the pressing chamber.
As a further optimization of the technical scheme, the discharging assembly comprises a motor II, a motor II shaft, a discharging transmission case upper cover, a clutch control rod, a clutch control chute, a clutch control bracket, a ball shifting II, a ball groove sleeve II, a sliding gear II chute, a worm, a clutch gear, a worm wheel shaft, a belt wheel II, a belt wheel III, a hopper, a spherical discharging port, a discharging fan blade shaft, a discharging fan blade, a hopper bracket, a telescopic rod sliding cylinder, a pressing roller shaft, a pressing roller, a pressing spring, a pressing ring, a pressurizing inclined plane and a connecting column, wherein the motor II is connected with the motor II shaft, the motor II shaft is connected with the sliding bracket, the discharging transmission case is rotationally connected with the sliding bracket, the discharging transmission case is connected with the discharging transmission case upper cover, the clutch control rod is hinged with the discharging transmission case upper cover, the clutch control chute is positioned on the clutch control lever, the clutch control lever is connected with the clutch control bracket, the clutch control bracket is connected with two drive balls II, the two drive balls II are both connected with a ball groove sleeve II in a sliding way, the ball groove sleeve II is connected with a sliding gear II, the sliding gear II is connected with a sliding gear II chute in a sliding way, the sliding gear II chute is positioned on a motor II shaft, a worm is connected with a discharge transmission box in a rotating way, the worm is connected with two clutch gears, the worm is meshed with the worm gear, the worm gear is connected with a worm gear shaft, the worm gear shaft is connected with a discharge transmission box in a rotating way, the worm gear shaft is connected with a belt wheel II, the belt wheel II is connected with a belt wheel III through a belt II, the belt wheel III is connected with a discharge fan blade shaft, the discharge fan blade shaft is connected with a discharge fan blade, the discharge fan shaft is connected with a spherical discharge port, the spherical discharge port is connected with a hopper, and the hopper is connected with a hopper bracket, hopper support is connected with sliding bracket, two spliced poles all rotate with the hopper and are connected, two spliced poles are connected with two telescopic links respectively, two telescopic links respectively with two telescopic link sliding barrel sliding connection, two telescopic link sliding barrels all rotate with the compression roller axle and are connected, the compression roller axle is connected with the compression roller, two pressure spring cup joint respectively on two telescopic links, two pressure spring both ends respectively with two telescopic link sliding barrel, two clamp rings are connected, two pressure spring all are in compression state, two clamp rings contact with two pressure boost inclined planes respectively, two telescopic links respectively with two pressure boost inclined plane sliding connection, two pressure boost inclined planes all are connected with the hopper.
As a further optimization of the technical scheme, the control assembly comprises a gear lever, a gear switching cover, a gear support, a switching ball, a spherical sliding groove, a ball head connecting frame, a discharging control lever and a traveling control lever, wherein the gear lever is connected with the gear switching cover in a sliding manner, the gear switching cover is connected with the gear support, the gear support is connected with the sliding support, the gear lever is connected with the switching ball, the spherical sliding groove is positioned at the bottom of the switching ball, the ball head connecting frame is connected with the spherical sliding groove in a sliding manner, the ball head connecting frame is connected with the discharging control lever, the discharging control lever is connected with a clutch control sliding groove in a sliding manner, the discharging control lever is connected with the gear support in a rotating manner, the traveling control lever is connected with the switching ball and the gear support in a rotating manner, and the traveling control lever is connected with a turning control sliding groove in a sliding manner.
As a further optimization of the technical scheme, the mold vibration assembly comprises a bevel gear III, a bevel gear IV shaft, a hammer, a striking plate, a sliding column, a spring I, a fixed plate, a hollow mold, a spring II, a sliding plate and a striking ball, wherein the shaft of a motor I is connected with the bevel gear III, the bevel gear III is in meshed connection with the bevel gear IV, the bevel gear IV is connected with the bevel gear IV shaft, the bevel gear IV shaft is in rotary connection with a sliding support, the bevel gear IV shaft is connected with the hammer, the striking plate is connected with the sliding column, the sliding column is in sliding connection with the fixed plate, two ends of the spring I are respectively connected with the striking plate and the fixed plate, the spring I is sleeved on the sliding column, the spring I is in a normal state, the fixed plate is connected with the sliding support, the hollow mold is connected with the fixed plate, the sliding column is in sliding connection with the hollow mold, the spring II is connected with the sliding plate, spring II is in the normality, and slide and hollow mould sliding connection, batting all are located inside the hollow mould.
The automatic hollow slab manufacturing equipment has the beneficial effects that: select different gears through control gear pole and can control the hopper to advance respectively, retreat, the ejection of compact, stop the ejection of compact, the hopper is with the compaction of repeatedly paving through the compression roller after the concrete is discharged, the concrete bedding is thicker, the compression roller is bigger to the concrete, at the concrete pressing in-process, hollow mould can produce slight vibration, make tiny gap between the concrete disappear the back by the compression roller flatten, control equipment can release the hollow slab behind the completion hollow slab suppression and suppress indoor and continue the suppression, can easily adjust the length of every hollow slab.
Drawings
The invention is described in further detail below with reference to the accompanying drawings and specific embodiments.
FIG. 1 is a schematic view of the overall structure of the present invention;
FIG. 2 is a schematic view of the first embodiment of the walking assembly 1 of the present invention;
FIG. 3 is a schematic structural diagram of the walking assembly 1 of the present invention;
FIG. 4 is a schematic structural view III of the walking assembly 1 of the present invention;
FIG. 5 is a partial cross-sectional view of the walking assembly 1 of the present invention;
FIG. 6 is a fourth schematic structural view of the walking assembly 1 of the present invention;
FIG. 7 is a first schematic structural view of the discharging assembly 2 of the present invention;
FIG. 8 is a second schematic structural view of the discharging assembly 2 of the present invention;
FIG. 9 is a third schematic structural view of the discharging assembly 2 of the present invention;
FIG. 10 is a partial cross-sectional view of the outfeed assembly 2 of the present invention;
FIG. 11 is a fourth schematic structural view of the discharging assembly 2 of the present invention;
FIG. 12 is a schematic structural view of the discharging assembly 2 of the present invention;
FIG. 13 is a sixth schematic structural view of the discharge assembly 2 of the present invention;
FIG. 14 is a seventh schematic structural view of the discharging assembly 2 of the present invention;
FIG. 15 is a first structural view of the control assembly 3 of the present invention;
FIG. 16 is a second structural view of the control assembly 3 of the present invention;
FIG. 17 is a third schematic structural view of the control assembly 3 of the present invention;
FIG. 18 is a first schematic structural view of the vibrating assembly 4 of the present invention;
FIG. 19 is a second structural view of the vibrating assembly 4 of the mold of the present invention;
fig. 20 is a partial cross-sectional view of the mold oscillating assembly 4 of the present invention.
In the figure: a walking assembly 1; a bottom plate 1-1; a pressing chamber 1-2; 1-3 of a sliding support; 1-4 of a motor; 1-5 shafts of a motor I; 1-6 of a walking transmission case; 1-7 parts of an upper cover of the walking transmission case; 1-8 of a change gear; 1-9 parts of a gear I; 1-10 parts of a gear II; 1-11 of a gear II shaft; 1-12 of a change gear; a change lever 1-13; a direction-changing control chute 1-14; 1-15 of a direction-changing control bracket; 1-16 of a ball I; 1-17 parts of a ball groove sleeve; sliding gears I1-18; sliding chutes 1-19 of the sliding gear I; 1-20 of a sliding gear I shaft; 1-21 parts of a bevel gear I; bevel gears II 1-22; bevel gear II shafts 1-23; 1-24 pulleys; 1-25 parts of a belt I; 1-26 of a walking wheel shaft; 1-27 of road wheels; a discharging assembly 2; a motor II 2-1; 2-2 of a motor II shaft; 2-3 of a discharging transmission box; 2-4 parts of an upper cover of the discharging transmission box; 2-5 of a clutch operating lever; a clutch operating chute 2-6; a clutch operating bracket 2-7; 2-8 of a ball poking II; 2-9 parts of a ball groove sleeve; 2-10 parts of a sliding gear; 2-11 sliding chutes of a sliding gear II; 2-12 parts of worm; 2-13 of clutch gear; worm gears 2-14; 2-15 parts of worm wheel shaft; belt wheels II 2-16; belts II 2-17; 2-18 of belt wheel III; 2-19 parts of a hopper; 2-20 parts of a spherical discharge port; 2-21 parts of discharging fan blade shaft; 2-22 parts of discharge fan blades; 2-23 parts of a hopper support; 2-24 parts of a telescopic rod; 2-25 parts of telescopic rod sliding barrel; 2-26 of a compression roller shaft; 2-27 of press rolls; 2-28 parts of a compression spring; 2-29 of a compression ring; 2-30 parts of a pressurizing inclined plane; connecting columns 2-31; a control assembly 3; a gear lever 3-1; a gear shifting cover 3-2; 3-3 of a gear bracket; switching balls 3-4; 3-5 parts of a spherical chute; 3-6 parts of a ball head connecting frame; a discharging control rod 3-7 and a walking control rod 3-8; a mold vibration assembly 4; bevel gears III 4-1; a bevel gear IV 4-2; 4-3 of a bevel gear IV shaft; 4-4 of a hammer; 4-5 of a striking plate; 4-6 of a sliding column; 4-7 of a spring; fixing plates 4-8; 4-9 parts of a hollow mold; 4-10 parts of a spring II; 4-11 of a sliding plate; hit the ball 4-12.
Detailed Description
The present invention will be described in further detail with reference to the accompanying drawings.
The fixed connection in the device is realized by fixing in modes of welding, thread fixing and the like, and different fixing modes are used in combination with different use environments; the rotary connection means that the bearing is arranged on the shaft in a drying mode, a spring retainer ring groove is formed in the shaft or the shaft hole, and the elastic retainer ring is clamped in the retainer ring groove to achieve axial fixation of the bearing and achieve rotation; the sliding connection refers to the connection through the sliding of the sliding block in the sliding groove or the guide rail, and the sliding groove or the guide rail is generally in a step shape, so that the sliding block is prevented from falling off in the sliding groove or the guide rail; the hinge joint is a movable connection mode on connecting parts such as a hinge, a pin shaft, a short shaft and the like; the required sealing positions are sealed by sealing rings or O-shaped rings.
The first embodiment is as follows:
the following describes the present embodiment with reference to fig. 1 to 20, and an automated hollow slab manufacturing apparatus includes a traveling assembly 1, a discharging assembly 2, a control assembly 3, and a mold vibrating assembly 4, where the discharging assembly 2, the control assembly 3, and the mold vibrating assembly 4 are all connected to the traveling assembly 1, and the discharging assembly 2 is connected to the control assembly 3.
The second embodiment is as follows:
the embodiment is described below with reference to fig. 1-20, and the embodiment is further described, wherein the walking assembly 1 comprises a bottom plate 1-1, a pressing chamber 1-2, a sliding support 1-3, a motor I1-4, a motor I shaft 1-5, a walking transmission case 1-6, a walking transmission case upper cover 1-7, a change gear I1-8, a gear I1-9, a gear II 1-10, a gear II shaft 1-11, a change gear II 1-12, a change control lever 1-13, a change control chute 1-14, a change control support 1-15, a shifting ball I1-16, a ball groove sleeve I1-17, a sliding gear I1-18, a sliding gear I chute 1-19, a sliding gear I shaft 1-20, 1-21 parts of bevel gears I, 1-22 parts of bevel gears II, 1-23 parts of bevel gear II shafts, 1-24 parts of belt wheels, 1-25 parts of belts I, 1-26 parts of walking wheel shafts and 1-27 parts of walking wheels, wherein a bottom plate 1-1 is connected with a pressing chamber 1-2, a sliding support 1-3 part is connected with the pressing chamber 1-2 part in a sliding manner, 1-4 parts of a motor I are connected with the pressing chamber 1-2 part, 1-4 parts of the motor I are connected with 1-5 parts of the motor I shafts, 1-5 parts of the motor I are rotationally connected with 1-6 parts of a walking transmission box, 1-6 parts of the walking transmission box are connected with 1-3 parts of the sliding support, 1-6 parts of the walking transmission box are connected with 1-7 parts of an upper cover of the walking transmission box, 1-5 parts of the motor I shafts are connected with 1-8 parts of a change gear I and 1-9 parts of a gear I, the gear I1-9 is meshed with the gear II 1-10, the gear II 1-10 is connected with the gear II shaft 1-11, the gear II shaft 1-11 is rotatably connected with the walking transmission case 1-6, the change gear II 1-12 is connected with the gear II shaft 1-11, the change control lever 1-13 is connected with the change control support 1-15, the change control lever 1-13 is hinged with the walking transmission case upper cover 1-7, the change control chute 1-14 is positioned on the change control lever 1-13, the change control support 1-15 is connected with two shifting balls I1-16, the two shifting balls I1-16 are both in sliding connection with the ball groove of the ball groove sleeve I1-17, the ball groove sleeve I1-17 is connected with the sliding gear I1-18, the sliding gear I1-18 is in sliding connection with the sliding gear I chute 1-19, the sliding gear I chutes 1-19 are positioned on the sliding gear I shaft 1-20, the sliding gear I shaft 1-20 is rotatably connected with the walking transmission case 1-6, the sliding gear I shaft 1-20 is connected with the bevel gear I1-21, the bevel gear I1-21 is meshed with the bevel gear II 1-22, the bevel gear II 1-22 is connected with the bevel gear II shaft 1-23, the bevel gear II shaft 1-23 is rotatably connected with the sliding support 1-3, the bevel gear II shaft 1-23 is connected with one belt wheel I1-24, the two belt wheels I1-24 are connected through a belt I1-25, one belt wheel I1-24 is connected with one walking wheel shaft 1-26, the three walking wheel shafts 1-26 are rotatably connected with the sliding support 1-3, and the three walking wheel shafts 1-26, The shafts 1 to 23 of the bevel gears II are respectively connected with four travelling wheels 1 to 27, the four travelling wheels 1 to 27 are all contacted with the pressing chamber 1 to 2, and the length of the hollow slab can be controlled by controlling the forward and backward movement of the travelling assembly 1.
The third concrete implementation mode:
the following describes the present embodiment with reference to fig. 1-20, and the present embodiment further describes the first embodiment, where the discharging assembly 2 includes a motor ii 2-1, a motor ii shaft 2-2, a discharging transmission case 2-3, a discharging transmission case upper cover 2-4, a clutch control lever 2-5, a clutch control chute 2-6, a clutch control bracket 2-7, a ball-poking ball ii 2-8, a ball-groove sleeve ii 2-9, a sliding gear ii 2-10, a sliding gear ii chute 2-11, a worm 2-12, a clutch gear 2-13, a worm gear 2-14, a worm-gear shaft 2-15, a belt pulley ii 2-16, a belt ii 2-17, a belt pulley iii 2-18, a hopper 2-19, a spherical discharging port 2-20, a discharging fan shaft 2-21, 2-22 parts of discharge fan blades, 2-23 parts of a hopper support, 2-24 parts of telescopic rods, 2-25 parts of telescopic rod sliding cylinders, 2-26 parts of press roll shafts, 2-27 parts of press rolls, 2-28 parts of press springs, 2-29 parts of press rings, 2-30 parts of pressurizing inclined planes and 2-31 parts of connecting columns, 2-1 parts of a motor II is connected with 2-2 parts of a motor II shaft, 2-1 parts of the motor II is connected with 1-3 parts of a sliding support, 2-2 parts of the motor II shaft is rotationally connected with 2-3 parts of a discharge transmission box, 2-3 parts of the discharge transmission box are connected with 1-3 parts of the sliding support, 2-3 parts of the discharge transmission box are connected with 2-4 parts of the discharge transmission box, 2-5 parts of a clutch operating lever are hinged with 2-4 parts of the upper cover of the discharge transmission box, 2-6 parts of a clutch operating chute are positioned on 2-5 parts of the clutch operating lever, the clutch control lever 2-5 is connected with a clutch control bracket 2-7, the clutch control bracket 2-7 is connected with two shifting balls II 2-8, the two shifting balls II 2-8 are both connected with a ball groove sleeve II 2-9 in a sliding way, the ball groove sleeve II 2-9 is connected with a sliding gear II 2-10, the sliding gear II 2-10 is connected with a sliding gear II sliding groove 2-11 in a sliding way, the sliding gear II sliding groove 2-11 is positioned on a motor II shaft 2-2, a worm 2-12 is rotationally connected with a discharging transmission box 2-3, the worm 2-12 is connected with two clutch gears 2-13, the worm 2-12 is meshed with a worm wheel 2-14, the worm wheel 2-14 is connected with a worm wheel shaft 2-15, the worm wheel shaft 2-15 is rotationally connected with the discharging transmission box 2-3, the worm wheel shaft 2-15 is connected with the belt wheel II 2-16, the belt wheel II 2-16 is connected with the belt wheel III 2-18 through a belt II 2-17, the belt wheel III 2-18 is connected with the discharging fan blade shaft 2-21, the discharging fan blade shaft 2-21 is connected with the discharging fan blade 2-22, the discharging fan blade shaft 2-21 is rotatably connected with the spherical discharging port 2-20, the spherical discharging port 2-20 is connected with the hopper 2-19, the hopper 2-19 is connected with the hopper bracket 2-23, the hopper bracket 2-23 is connected with the sliding bracket 1-3, two connecting columns 2-31 are both rotatably connected with the hopper 2-19, the two connecting columns 2-31 are respectively connected with two telescopic rods 2-24, the two telescopic rods 2-24 are respectively connected with two telescopic rod sliding cylinders 2-25 in a sliding way, the two telescopic rod sliding cylinders 2-25 are rotatably connected with the compression roller shafts 2-26, the compression roller shafts 2-26 are connected with compression rollers 2-27, the two compression springs 2-28 are respectively sleeved on the two telescopic rods 2-24, two ends of the two compression springs 2-28 are respectively connected with the two telescopic rod sliding cylinders 2-25 and the two compression rings 2-29, the two compression springs are in a compression state, the two compression rings 2-29 are respectively contacted with the two supercharging inclined planes 2-30, the two telescopic rods 2-24 are respectively in sliding connection with the two supercharging inclined planes 2-30, the two supercharging inclined planes 2-30 are respectively connected with the hopper 2-19, discharging and stopping discharging can be automatically completed by controlling, and concrete can be automatically compacted.
The fourth concrete implementation mode:
the present embodiment is described below with reference to fig. 1-20, and the present embodiment further describes the first embodiment, where the control assembly 3 includes a gear lever 3-1, a gear shift cover 3-2, a gear bracket 3-3, a shift ball 3-4, a ball chute 3-5, a ball joint 3-6, a discharging control lever 3-7, and a walking control lever 3-8, the gear lever 3-1 is slidably connected to the gear shift cover 3-2, the gear shift cover 3-2 is connected to the gear bracket 3-3, the gear bracket 3-3 is connected to the sliding bracket 1-3, the gear lever 3-1 is connected to the shift ball 3-4, the ball chute 3-5 is located at the bottom of the shift ball 3-4, and the ball joint 3-6 is slidably connected to the ball chute 3-5, the ball head connecting frame 3-6 is connected with the discharging control rod 3-7, the discharging control rod 3-7 is in sliding connection with the clutch control chute 2-6, the discharging control rod 3-7 is in rotating connection with the gear support 3-3, the walking control rod 3-8 is in rotating connection with the switching ball 3-4 and the gear support 3-3, and the walking control rod 3-8 is in sliding connection with the direction-changing control chute 1-14, so that the operation of the gear-shifting control equipment can be completed.
The fifth concrete implementation mode:
the embodiment is described below with reference to fig. 1-20, and the embodiment further describes the first embodiment, wherein the mold vibration assembly 4 comprises a bevel gear iii 4-1, a bevel gear iv 4-2, a bevel gear iv shaft 4-3, a hammer 4-4, a striking plate 4-5, a sliding column 4-6, a spring i 4-7, a fixing plate 4-8, a hollow mold 4-9, a spring ii 4-10, a sliding plate 4-11 and a striking ball 4-12, a motor i shaft 1-5 is connected with the bevel gear iii 4-1, the bevel gear iii 4-1 is meshed with the bevel gear iv 4-2, the bevel gear iv 4-2 is connected with the bevel gear iv shaft 4-3, the bevel gear iv shaft 4-3 is rotatably connected with a sliding support 1-3, the bevel gear iv shaft 4-3 is connected with the hammer 4-4, the striking plate 4-5 is connected with the sliding column 4-6, the sliding column 4-6 is connected with the fixed plate 4-8 in a sliding mode, two ends of the spring I4-7 are respectively connected with the striking plate 4-5 and the fixed plate 4-8, the spring I4-7 is sleeved on the sliding column 4-6, the spring I4-7 is in a normal state, the fixed plate 4-8 is connected with the sliding support 1-3, the hollow mold 4-9 is connected with the fixed plate 4-8, the sliding column 4-6 is connected with the hollow mold 4-9 in a sliding mode, the spring II 4-10 is connected with the hollow mold 4-9, the spring II 4-10 is connected with the sliding plate 4-11, the spring II 4-10 is in a normal state, the sliding plate 4-11 is connected with the hollow mold 4-9 in a sliding mode, and the striking balls 4-12 are located inside the hollow mold 4-9, the mould can generate vibration to reduce the gap between the concretes.
The invention relates to automatic hollow slab manufacturing equipment, which has the working principle that: adding the stirred concrete into the hopper 2-19, starting a motor I1-4 and a motor II 2-1, driving a motor I shaft 1-5 to rotate by the motor I shaft 1-4, driving a change gear I1-8 and a gear I1-9 to rotate by the motor I shaft 1-5, driving a gear II 1-10 to rotate by the gear I1-9, driving a gear II shaft 1-11 to rotate by the gear II shaft 1-11, driving a change gear II 1-12 to rotate by the gear II shaft 1-11, wherein a sliding gear I1-18 is not meshed with the change gear I1-8 and the change gear II 1-12, the equipment does not act, driving a motor II shaft 2-2 to rotate by the motor II 2-2, driving a sliding gear II chute 2-11 to drive a sliding gear II 2-10 to rotate, at the moment, the sliding gear II 2-10 is not meshed with the two clutch gears 2-13, the equipment does not discharge materials, the gear rod 3-1 is pushed forwards and backwards or backwards, the gear rod 3-1 cannot drive the walking control rod 3-8 to move, the gear rod 3-1 drives the ball head connecting frame 3-6 to rotate through the spherical chute 3-5, the ball head connecting frame 3-6 drives the discharging control rod 3-7 to rotate, the discharging control rod 3-7 drives the clutch control rod 2-5 through the clutch control chute 2-6, the walking control rod 3-8 is rotationally connected with the switching ball 3-4, the walking control rod 3-8 does not move, the gear rod 3-1 is pushed leftwards or rightwards, the ball head connecting frame 3-6 slides in the spherical chute 3-5, the ball head connecting frame 3-6 does not move with the discharging control rod 3-7, the switching ball 3-4 drives the walking control rod 3-8 to shift the direction-changing control rod 1-13 by shifting the direction-changing control chute 1-14, if the gear rod 3-1 is shifted back and forth and then shifted left and right first, the switching ball 3-4 drives the discharging control rod 3-7 and the walking control rod 3-8 to simultaneously shift the clutch control rod 2-5 and the direction-changing control rod 1-13, when the direction-changing control rod 1-13 is shifted left and right, the direction-changing control rod 1-13 rotates around the hinge shaft, the direction-changing control rod 1-13 drives the direction-changing control bracket 1-15 to move, the direction-changing control bracket 1-15 drives the two shifting balls I1-16 to move, the two shifting balls I1-16 drive the ball-groove sleeve I1-17 to move, the ball-groove sleeve I1-17 drives the sliding gear I1-18 to slide in the sliding gear I chute 1-19, thus, the engagement of the sliding gears I1-18 with the direction changing gears I1-8 or the direction changing gears II 1-12 is controlled by controlling the direction changing control levers 1-13, the direction changing gears I1-8 and the direction changing gears II 1-12 have opposite rotating directions, the rotating directions of the sliding gears I1-18 are changed by controlling the engagement relationship of the sliding gears I1-18, the sliding gears I1-18 drive the sliding gears I1-20 to rotate by driving the sliding gears I chutes 1-19, the sliding gears I1-20 drive the bevel gears I1-21 to rotate, the bevel gears I1-21 drive the bevel gears II 1-22 to rotate, the bevel gears II 1-22 drive the bevel gears II shafts 1-23 to rotate, and the bevel gears II shafts 1-23 drive the belt pulleys I1-24 to rotate, the belt wheels I1-24 drive the other belt wheel I1-24 to rotate through belts I1-25, the other belt wheel I1-24 drives the traveling wheel shaft 1-26 to rotate, the bevel gear II shaft 1-23 and the traveling wheel shaft 1-26 respectively drive the two traveling wheels 1-27 to rotate, the traveling wheels 1-27 are all contacted with the pressing chamber 1-2, the traveling wheels 1-27 rotate forward or reversely to drive the equipment to move forward or backward, when the clutch control lever 2-5 is shifted forward or backward, the clutch control lever 2-5 rotates around a hinge shaft, the clutch control lever 2-5 drives the clutch control bracket 2-7 to rotate, the clutch control bracket 2-7 drives the ball groove sleeve II 2-9 to move forward and backward through the two shifting balls II 2-8, the ball groove sleeve II 2-9 drives the sliding gear II 2-10 to slide in the sliding gear II sliding groove 2-11, therefore, the sliding gear II 2-10 is controlled to be meshed with the two clutch gears 2-13 by operating the clutch operating lever 2-5, the motor II 2-1 drives the motor II shaft 2-2 to rotate, and the motor II shaft 2-2 drives the sliding gear II 2-10 to rotate through the sliding groove 2-11 of the sliding gear II. The sliding gear II 2-10 drives the clutch gear 2-13 to rotate, the clutch gear 2-13 drives the worm 2-12 to rotate, the worm 2-12 drives the worm wheel 2-14 to rotate, the worm wheel 2-14 drives the worm wheel shaft 2-15 to rotate, the worm wheel shaft 2-15 drives the belt wheel II 2-16 to rotate, the belt wheel II 2-16 drives the belt wheel III 2-18 to rotate through the belt II 2-17, the belt wheel III 2-18 drives the discharging fan blade shaft 2-21 to rotate, the discharging fan blade shaft 2-21 drives the discharging fan blade 2-22 to rotate to discharge concrete, the concrete in the hopper 2-19 is blocked by the discharging fan blade 2-22 under the action of gravity when the discharging fan blade 2-22 does not rotate, because of the self-locking action of the worm wheel 2-14 and the worm 2-12, the discharging fan blades 2-22 can not rotate under the pressure of concrete, so that discharging is finished, if the gear rod 3-1 is firstly shifted forwards and backwards and then shifted left and right, the spherical discharging port 2-20 can move forwards or backwards and discharge the concrete, the concrete falls into the pressing chamber 1-2 on the hollow mould 4-9, the hopper 2-19 drives the two connecting columns 2-31 to move, the two connecting columns 2-31 drive the two telescopic rods 2-24 to move, the two telescopic rods 2-24 drive the two telescopic rod sliding cylinders 2-25 to move, the two telescopic rod sliding cylinders 2-25 drive the pressing roll shafts 2-26 to move, the pressing roll shafts 2-26 drive the pressing rolls 2-27 to contact with the concrete to press the concrete, and as the concrete is higher and higher, the pressing rolls 2-27 drive the connecting columns 2-31 to rotate through the transmission, the telescopic rod 2-24 rotates to drive the compression spring 2-28 and the compression ring 2-29 to rotate, the compression ring 2-29 slides upwards along the pressurizing inclined plane 2-30, the compression spring 2-28 is further compressed, the pressure of the compression spring 2-28 on the telescopic rod sliding barrel 2-25 is increased, the pressure of the compression roller 2-27 on the concrete is increased through the transmission process, so that the concrete is completely compacted by the compression roller 2-27, the quality of the hollow plate is ensured, the motor I shaft 1-5 drives the bevel gear III 4-1 to be increased, the bevel gear III 4-1 drives the bevel gear IV 4-2 to rotate, the bevel gear IV 4-2 drives the bevel gear IV shaft 4-3 to rotate, the bevel gear IV shaft 4-3 drives the hammer 4-4 to rotate to strike the plate 4-5, the strike plate 4-5 drives the sliding column 4-6 to rotate on the fixing plate 4-8 and the hollow mould 4-9 Sliding to knock a ball 4-12, knocking the ball 4-12 to collide with each other in a hollow mould 4-9, knocking the ball 4-12 to collide with a sliding plate 4-11 to drive a spring II 4-10 to compress, rebounding to rebound the ball 4-12 to continue to collide with the hollow mould 4-9, so that the hollow mould 4-9 is driven to generate slight vibration in a reciprocating way, small gaps of concrete around the hollow mould 4-9 disappear and then are compacted by a press roller, the quality of the hollow plate is better, after the compaction is finished, a sliding support 1-3 is controlled to advance, the sliding support 1-3 drives a fixing plate 4-8 to advance to push the hollow plate in a compaction chamber 1-2 to a bottom plate 1-1, then retreating to draw the hollow mould 4-9 out of the concrete to finish the manufacture of the hollow plate, at this time, the hollow plate can be cut off to finish the compaction or continue to be connected with a front section hollow plate, the hollow slab can be operated according to the length requirement of the hollow slab.
It is to be understood that the above description is not intended to limit the present invention, and the present invention is not limited to the above examples, and that various changes, modifications, additions and substitutions which are within the spirit and scope of the present invention and which may be made by those skilled in the art are also within the scope of the present invention.
Claims (1)
1. The utility model provides an automatic hollow slab preparation equipment of changing, includes walking assembly (1), ejection of compact assembly (2), control assembly (3) and mould vibration assembly (4), its characterized in that: the discharging assembly (2), the control assembly (3) and the die vibration assembly (4) are connected with the walking assembly (1), and the discharging assembly (2) is connected with the control assembly (3);
the walking assembly (1) comprises a bottom plate (1-1), a pressing chamber (1-2), a sliding support (1-3), a motor I (1-4), a motor I shaft (1-5), a walking transmission case (1-6), a walking transmission case upper cover (1-7), a change gear I (1-8), a gear I (1-9), a gear II (1-10), a gear II shaft (1-11), a change gear II (1-12), a change control lever (1-13), a change control sliding groove (1-14), a change control support (1-15), a ball shifting I (1-16), a ball groove sleeve I (1-17), a sliding gear I (1-18), a sliding gear I sliding groove (1-19), a sliding gear I shaft (1-20), Bevel gear I (1-21), bevel gear II (1-22), bevel gear II shaft (1-23), belt wheel I (1-24), belt I (1-25), walking wheel shaft (1-26) and walking wheel (1-27), bottom plate (1-1) is connected with pressing chamber (1-2), sliding support (1-3) is connected with pressing chamber (1-2) in a sliding way, motor I (1-4) is connected with pressing chamber (1-2), motor I (1-4) is connected with motor I shaft (1-5), motor I shaft (1-5) is connected with walking transmission case (1-6) in a rotating way, walking transmission case (1-6) is connected with sliding support (1-3), walking transmission case (1-6) is connected with walking transmission case upper cover (1-7), a motor I shaft (1-5) is connected with a change gear I (1-8) and a gear I (1-9), the gear I (1-9) is meshed with a gear II (1-10), the gear II (1-10) is connected with a gear II shaft (1-11), the gear II shaft (1-11) is rotatably connected with a walking transmission case (1-6), the change gear II (1-12) is connected with the gear II shaft (1-11), the change control lever (1-13) is connected with a change control bracket (1-15), the change control lever (1-13) is hinged with an upper cover (1-7) of the walking transmission case, the change control chute (1-14) is positioned on the change control lever (1-13), the change control bracket (1-15) is connected with two shifting balls I (1-16), two ball shifting I (1-16) are in sliding connection with the ball grooves of a ball groove sleeve I (1-17), the ball groove sleeve I (1-17) is connected with a sliding gear I (1-18), the sliding gear I (1-18) is in sliding connection with a sliding gear I sliding groove (1-19), the sliding gear I sliding groove (1-19) is positioned on a sliding gear I shaft (1-20), the sliding gear I shaft (1-20) is in rotating connection with a walking transmission case (1-6), the sliding gear I shaft (1-20) is connected with a bevel gear I (1-21), the bevel gear I (1-21) is in meshing connection with a bevel gear II (1-22), the bevel gear II (1-22) is connected with a bevel gear II shaft (1-23), the bevel gear II shaft (1-23) is in rotating connection with a sliding support (1-3), the bevel gear II shaft (1-23) is connected with a belt wheel I (1-24), two belt wheels I (1-24) are connected through a belt I (1-25), one belt wheel I (1-24) is connected with a walking wheel shaft (1-26), three walking wheel shafts (1-26) are rotatably connected with a sliding support (1-3), the three walking wheel shafts (1-26) and the bevel gear II shaft (1-23) are respectively connected with four walking wheels (1-27), and the four walking wheels (1-27) are in contact with a pressing chamber (1-2);
the discharging assembly (2) comprises a motor II (2-1), a motor II shaft (2-2), a discharging transmission case (2-3), a discharging transmission case upper cover (2-4), a clutch control rod (2-5), a clutch control chute (2-6), a clutch control bracket (2-7), a ball shifting II (2-8), a ball groove sleeve II (2-9), a sliding gear II (2-10), a sliding gear II chute (2-11), a worm (2-12), a clutch gear (2-13), a worm gear (2-14), a worm gear shaft (2-15), a belt wheel II (2-16), a belt II (2-17), a belt wheel III (2-18), a hopper (2-19), a spherical discharging port (2-20), a discharging fan blade shaft (2-21), Discharge fan blades (2-22), a hopper support (2-23), a telescopic rod (2-24), a telescopic rod sliding cylinder (2-25), a compression roller shaft (2-26), a compression roller (2-27), a compression spring (2-28), a compression ring (2-29), a pressurizing inclined plane (2-30) and a connecting column (2-31), wherein a motor II (2-1) is connected with a motor II shaft (2-2), the motor II (2-1) is connected with a sliding support (1-3), the motor II shaft (2-2) is rotationally connected with a discharge transmission box (2-3), the discharge transmission box (2-3) is connected with the sliding support (1-3), the discharge transmission box (2-3) is connected with a discharge transmission box upper cover (2-4), a clutch control lever (2-5) is hinged with the discharge transmission box upper cover (2-4), the clutch control chute (2-6) is positioned on the clutch control lever (2-5), the clutch control lever (2-5) is connected with the clutch control bracket (2-7), the clutch control bracket (2-7) is connected with two shifting balls II (2-8), the two shifting balls II (2-8) are both in sliding connection with the ball groove sleeve II (2-9), the ball groove sleeve II (2-9) is connected with the sliding gear II (2-10), the sliding gear II (2-10) is in sliding connection with the sliding gear II chute (2-11), the sliding gear II chute (2-11) is positioned on the motor II shaft (2-2), the worm (2-12) is in rotating connection with the discharging transmission case (2-3), the worm (2-12) is connected with the two clutch gears (2-13), the worm (2-12) is engaged with the worm wheel (2-14), the worm wheel (2-14) is connected with a worm wheel shaft (2-15), the worm wheel shaft (2-15) is rotationally connected with the discharging transmission box (2-3), the worm wheel shaft (2-15) is connected with a belt wheel II (2-16), the belt wheel II (2-16) is connected with a belt wheel III (2-18) through a belt II (2-17), the belt wheel III (2-18) is connected with a discharging fan shaft (2-21), the discharging fan shaft (2-21) is connected with a discharging fan blade (2-22), the discharging fan shaft (2-21) is rotationally connected with a spherical discharging port (2-20), the spherical discharging port (2-20) is connected with a hopper (2-19), the hopper (2-19) is connected with a hopper support (2-23), the hopper support (2-23) is connected with the sliding support (1-3), two connecting columns (2-31) are rotatably connected with the hopper (2-19), the two connecting columns (2-31) are respectively connected with two telescopic rods (2-24), the two telescopic rods (2-24) are respectively connected with two telescopic rod sliding cylinders (2-25) in a sliding manner, the two telescopic rod sliding cylinders (2-25) are respectively connected with a compression roller shaft (2-26) in a rotating manner, the compression roller shaft (2-26) is connected with a compression roller (2-27), the two compression springs (2-28) are respectively sleeved on the two telescopic rods (2-24), the two ends of the two compression springs (2-28) are respectively connected with the two telescopic rod sliding cylinders (2-25) and the two compression rings (2-29), and the two compression springs are in a compression state, the two compression rings (2-29) are respectively contacted with the two pressurizing inclined planes (2-30), the two telescopic rods (2-24) are respectively connected with the two pressurizing inclined planes (2-30) in a sliding manner, and the two pressurizing inclined planes (2-30) are both connected with the hopper (2-19);
the control assembly (3) comprises a gear rod (3-1), a gear switching cover (3-2), a gear support (3-3), a switching ball (3-4), a spherical sliding groove (3-5), a ball head connecting frame (3-6), a discharging control rod (3-7) and a walking control rod (3-8), the gear rod (3-1) is connected with the gear switching cover (3-2) in a sliding manner, the gear switching cover (3-2) is connected with the gear support (3-3), the gear support (3-3) is connected with the sliding support (1-3), the gear rod (3-1) is connected with the switching ball (3-4), the spherical sliding groove (3-5) is positioned at the bottom of the switching ball (3-4), the ball head connecting frame (3-6) is connected with the spherical sliding groove (3-5) in a sliding manner, the ball head connecting frame (3-6) is connected with the discharging control rod (3-7), the discharging control rod (3-7) is in sliding connection with the clutch control sliding chute (2-6), the discharging control rod (3-7) is in rotating connection with the gear bracket (3-3), the walking control rod (3-8) is in rotating connection with the switching ball (3-4) and the gear bracket (3-3), and the walking control rod (3-8) is in sliding connection with the direction-changing control sliding chute (1-14);
the mold vibration assembly (4) comprises a bevel gear III (4-1), a bevel gear IV (4-2), a bevel gear IV shaft (4-3), a hammer (4-4), a striking plate (4-5), a sliding column (4-6), a spring I (4-7), a fixing plate (4-8), a hollow mold (4-9), a spring II (4-10), a sliding plate (4-11) and a striking plate (4-12), wherein the motor I shaft (1-5) is connected with the bevel gear III (4-1), the bevel gear III (4-1) is meshed with the bevel gear IV (4-2), the bevel gear IV (4-2) is connected with the bevel gear IV shaft (4-3), and the bevel gear IV shaft (4-3) is rotationally connected with a sliding support (1-3), a bevel gear IV shaft (4-3) is connected with a hammer (4-4), a striking plate (4-5) is connected with a sliding column (4-6), the sliding column (4-6) is connected with a fixed plate (4-8) in a sliding way, two ends of a spring I (4-7) are respectively connected with the striking plate (4-5) and the fixed plate (4-8), the spring I (4-7) is sleeved on the sliding column (4-6), the spring I (4-7) is in a normal state, the fixed plate (4-8) is connected with a sliding bracket (1-3), a hollow mold (4-9) is connected with the fixed plate (4-8), the sliding column (4-6) is connected with the hollow mold (4-9) in a sliding way, a spring II (4-10) is connected with the hollow mold (4-9), the spring II (4-10) is connected with a sliding plate (4-11), the spring II (4-10) is in a normal state, the sliding plate (4-11) is in sliding connection with the hollow mold (4-9), and the hitting balls (4-12) are located inside the hollow mold (4-9).
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