JP6784899B1 - Automatic cement placement device - Google Patents

Abstract

PROBLEM TO BE SOLVED: To disclose an automatic cement placing device. SOLUTION: The main frame is installed symmetrically in the front-rear direction, a rotatable roller localization shaft is installed at the bottom end of the main frame, and a roller frame is fixedly installed at the lower end of the roller localization shaft. A rotatable roller shaft is installed on the roller frame, and a roller is fixedly installed on the roller shaft. The present invention has a simple configuration and is convenient for maintenance and use. The automatic cement placement device of the present invention automatically places cement in the cement placement construction area, and after the cement placement is completed, the cement is piled up flat and cement is placed by a general worker. It is more efficient and convenient than installation, and the effect of cement placement is stable and reliable without being affected by traditional construction methods, and at the same time, construction can be carried out quickly with a great deal of labor saving. [Selection diagram] Fig. 1

Description

The present invention relates to the field of cement placing, and specifically, is an automatic cement placing device.

Cement placement is an important part of a construction project, traditional cement placement is completed by workers and is inefficient, and the cement itself has an initial solidification time and a final solidification time, solidification time. Within, workers have not yet completed cement placement, and if the cement is not processed in a timely manner, the cement must be remade, wasting a large amount of raw material, and thus automatic and highly efficient cement placement. It is necessary to develop a device for setting.

Chinese Patent Application Publication No. 1044367777

Technical problem: The conventional method of placing cement by workers is inefficient and wastes raw materials.

In order to solve the above problems, the present invention has developed an automatic cement placing device. The automatic cement placing device of the present invention includes a main frame installed symmetrically in the front-rear direction, a rotatable roller localization shaft is installed at the bottom end of the main frame, and a roller frame is installed at the lower end of the roller localization shaft. Is fixedly installed, a rotatable roller shaft is installed on the roller frame, a roller is fixedly installed on the roller shaft, and when the main frame is pushed and moved by a force, the roller rotates, and The entire apparatus of the present invention can be driven and displaced, and stop plates are arranged so as to have a rectangular shape at the bottom end of the main frame, and the stop plates limit the casting range of the apparatus of the present invention. A main power space is installed in the top wall of the frame, a main power mechanism is installed in the main power space, and a main transmission space is installed in the left and right side walls of the main power space. A main pulley mechanism is installed in the main transmission space, and the main power mechanism and the main pulley mechanism are connected so as to be rotatable, and the main power mechanism can drive the main pulley mechanism and is inside the main frame. A working space is installed in, a main guide rail is installed on the top wall of the working space, a sub-frame that can slide in the left-right direction is installed on the main guide rail, and the sub-frame and the main pulley mechanism are The main pulley mechanism is fixedly connected, and when the main pulley mechanism is rotated, the sub-frame can be slid in the left-right direction. Sub-guide rails are fixedly installed on the left and right side walls of the sub-frame, and the lower end of the sub-frame is fixed. An operating housing is installed in the operating housing, an auxiliary power space is installed in the operating housing, an auxiliary power mechanism is installed in the auxiliary power space, and an auxiliary pulley is installed on the upper end surface of the operating housing. The mechanism is installed symmetrically and fixedly, the auxiliary pulley mechanism and the auxiliary guide rail are connected so as to be rotatable, and the auxiliary power mechanism and the auxiliary pulley mechanism are connected so as to be rotatable. The sub-power mechanism can drive the sub-pulley mechanism, the sub-pulley mechanism can drive the operating housing and slide in the front-rear direction on the sub-guide rail, and is inside the lower wall of the sub-power space. The push plate control space is installed symmetrically, a push plate control mechanism is installed in the push plate control space, and the push plate control mechanism and the auxiliary power mechanism are connected so as to be rotatable. The auxiliary power mechanism can drive the push plate control mechanism, and push plate mechanisms are installed on the left and right outer walls of the operating housing, and the push plate control mechanism and the push plate mechanism are connected so as to mesh with each other. The plate control mechanism is the push plate machine. The operation of the structure can be controlled, the push plate mechanism allows the cement in the casting area to be stacked flat, a cement pump is fixedly installed in the operating housing, and a feed pipe is installed at the upper end of the cement pump. Can be connected to the upper end of the feed pipe and the cement storage device, and the feed pipe is installed so as to communicate with the lower end of the cement pump, and is installed at the lower end of the feed pipe. When the injection valve is installed so as to communicate with each other, a slideable injection valve slider is installed in the injection valve, an injection valve spring is fixedly installed at the lower end of the injection valve slider, and the cement pump is started. , The cement pump sucks the cement in the cement storage device into the injection valve via the feed pipe and the feed pipe, and when the pressure reaches a preset value, the cement pushes the injection valve. The injection valve spring is pushed and moved downward to overcome the elasticity of the spring, and the cement is blown out of the injection valve and placed in the target area.

The main power mechanism includes a main motor fixedly installed in the main power space, is connected to the main motor so that the main power shaft can be transmitted, and first is connected to the left and right ends of the main power shaft. The power cap gears are installed symmetrically and fixedly, the second power cap gear is connected to the first power cap gear so as to mesh with each other, and the second power shaft is attached to the axis of the second power cap gear. Is fixedly installed, the second power shaft is installed so as to be rotatable on the front and rear inner walls of the main power space, and the first pulley is fixedly installed on the second power shaft and on the first pulley. The first belt is connected, the first belt and the main pulley mechanism are connected so as to be rotatable, and when the main motor is operated, the main motor becomes the main power shaft, the first power cap gear, and the main motor. The second power shaft is driven and rotated by the second power cap gear, and the second power shaft can drive the main pulley mechanism by the first pulley and the first belt.

The main pulley mechanism includes a first transmission shaft installed so as to be rotatable in the main transmission space, and a second pulley is fixedly installed on the first transmission shaft, and the second pulley and the first transmission shaft are fixedly installed. The first transmission cap gear is fixedly installed on the first transmission shaft, the first transmission cap gear is located at the rear end of the second pulley, and the first transmission cap gear is connected to the belt. The second transmission cap gear is connected to the lower end of the gear so as to mesh with the second transmission cap gear, the second transmission shaft is fixedly installed at the axis of the second transmission cap gear, and the second transmission shaft is below the main transmission space. It is installed so that it can rotate in the wall, a third transmission umbrella gear is fixedly installed at the lower end of the second transmission shaft, and the third transmission umbrella gear is located in the working space. The fourth transmission umbrella gear is connected to the lower end of the third transmission umbrella gear so as to mesh with each other, and the third transmission shaft is fixedly installed at the axis of the fourth transmission umbrella gear on the top wall of the working space. The first constant position block is installed symmetrically in the front-rear and left-right directions, and both front and rear ends of the third transmission shaft can be installed so as to be rotatable in the first constant position block, and a pulley is installed on the third transmission shaft. Is fixedly installed, a belt conveyor is installed so as to wrap around the pulley, the belt conveyor and the subframe are fixedly connected, and the first belt is fixedly connected by the second pulley to the first transmission. The shaft is driven and rotated, the first transmission shaft is driven and rotated by the first transmission cap gear and the second transmission cap gear, and the second transmission shaft is driven and rotated by the third transmission cap gear. The third transmission shaft can be driven and rotated by the umbrella gear and the fourth transmission umbrella gear, and the third transmission shaft can further drive the sub-frame by the pulley and the belt conveyor to slide in the left-right direction. it can.

The auxiliary power mechanism includes an auxiliary motor fixedly installed in the auxiliary power space, is connected to the auxiliary motor so that a third power shaft can be transmitted, and a third pulley is connected to the third power shaft. Is installed symmetrically and fixedly, a second belt is connected to the third pulley, the second belt and the push plate control mechanism are connected so as to be rotatable, and the sub motor is operated. Then, the sub-motor drives and rotates the second belt by the third power shaft and the third pulley, and the second belt can further drive the push plate control mechanism, and the third power shaft can be driven. Fourth pulleys are fixedly installed at both ends, a third belt is connected to the fourth pulley, the third belt and the auxiliary pulley mechanism are connected so as to be rotatable, and the third power shaft is connected. When the fourth pulley is driven and rotated, the fourth pulley can further drive the auxiliary pulley mechanism by the third belt.

The auxiliary pulley mechanism includes a second localization block that is symmetrically and fixedly installed on the top end surface of the operating housing, and is installed in the second localization block so that the pulley localization axis can rotate. A second pulley is fixedly installed at one end of the pulley localization axis close to the auxiliary frame, the second pulley can slide in the front-rear direction on the auxiliary guide rail, and a fifth pulley is attached to the pulley localization axis. It is fixedly installed, the fifth pulley and the upper end of the third belt are connected, and when the third belt drives and rotates the pulley localization shaft by the fifth pulley, the pulley localization shaft is further increased. The second pulley is driven to rotate on the sub-guide rail, and the operating housing is driven to slide in the front-rear direction on the sub-guide rail.

The push plate control mechanism includes a first control shaft installed so as to be rotatable in the push plate control space, and a sixth pulley is fixedly installed on the first control shaft, and the sixth pulley and the sixth pulley are fixedly installed. It is connected to the lower end of the second belt, and a first friction disc is fixedly installed at one end away from the center of symmetry in the first control axis, and on one side away from the center of symmetry in the push plate control space. A rotatable second control shaft is installed, and the hollow shaft is installed on one side of the second control shaft close to the center of symmetry so that the hollow shaft can rotate and slide, and the upper end of the hollow shaft is non-rotatable magnetic. A slider is installed, a control spring is fixedly installed on one side of the magnetic slider away from the center of symmetry, and an electromagnet is fixedly installed on one end of the control spring away from the center of symmetry. A second friction disc is fixedly installed at one end close to the center of symmetry, and the second friction disc and the first friction disc are contacted and connected by friction and separated from the center of symmetry in the second control axis. One side and the push plate mechanism are fixedly connected, the second belt drives and rotates the first control shaft by the sixth pulley, and the first control shaft drives the first friction plate. At this time, the electric magnet is energized, and the electric magnet is slid to one side close to the first friction plate by interlocking the magnetic slider with the control spring, and the magnetic slider is the hollow shaft and the first. (Ii) The friction disc is driven and slid to one side close to the first friction disc, the first friction disc is driven by friction to rotate the second friction disc, and the second friction disc is driven by the hollow shaft. The second control shaft can be driven and rotated, and the second control shaft can further drive the push plate mechanism.

The push plate mechanism includes a third localization block that is symmetrically and fixedly installed on the left and right outer walls of the operating housing, and is installed in the third localization block so that the first localization axis can rotate. A constant position bevel gear is fixedly installed on the constant position shaft, and the second localization bevel gear is connected so as to mesh with one side of the first constant position bevel gear close to the second control shaft. The second stereotaxic gear is fixedly installed at one end of the second control shaft away from the operating housing, and the first conrod is fixedly installed on the first stereoshaft. Is located at the front end of the first constant position bevel gear, a rotatable second conrod is installed at the lower end of the first conrod, and the upper end of the second conrod is connected to the first conrod by a hinge with a first constant pin. A fourth localization block is fixedly installed on the left and right outer walls of the operating housing, a slider that can slide in the vertical direction is installed on the fourth localization block, and the slider is attached to the second localization pin by the second localization pin. A push plate is fixedly installed at one end of the slider separated from the second control shaft by being connected to the lower end of the two-con rod by a hinge, and the second control shaft is the second localization gear and the first constant position. The constant position shaft is driven and rotated by the bevel gear, the first constant position shaft is driven and rotated by the first conrod, and the first conrod is the first constant position pin, the second conrod and the first conrod. (Ii) The stereotaxic pin drives the slider and slides it downward, and the slider further drives the push plate and slides it downward to push the cast cement flat.

Beneficial effects of the present invention: The present invention is simple to configure, convenient to maintain and use. The automatic cement placement device of the present invention automatically places cement in the cement placement area, and after the cement placement is completed, the cement is piled up flat and cement is placed by a general worker. It is more efficient and convenient than installation, the effect of cement placement is stable and reliable without being affected by traditional construction methods, and at the same time, the construction can be done quickly with a great deal of labor saving, and the cement is the original Due to the low construction efficiency, it is possible to effectively avoid the situation where the initial solidification phenomenon occurs without cement placement yet, and the automatic cement placement device of the present invention is applied to a large construction site and greatly improves the construction efficiency. Can be enhanced.

In order to explain in more detail the examples of the present invention or the technical ideas in the existing technology, the following is a brief introduction to the drawings necessary to explain the examples or the existing technology, and as is clear. , The following drawings are merely examples of a part of the present invention, and those skilled in the art can obtain other drawings based on these drawings without paying creative labor. The invention of the present application will be described in detail with reference to FIGS. 1 to 8 below, and in order to provide convenience in the explanation, the directions appearing in the following sentence are defined as follows: FIG. 1 is a front view of the invention of the present application, and later The directions of up, down, left, right, front and back described in the sentence are the same as the directions of up, down, left, right, front and back of the self-projection relationship in FIG.

FIG. 1 is a schematic diagram of the overall configuration of the automatic cement placing device of the present invention. FIG. 2 is a schematic plan view of FIG. FIG. 3 is an enlarged schematic view of the configuration of “A” in FIG. FIG. 4 is an enlarged schematic view of the configuration of “B” in FIG. FIG. 5 is an enlarged schematic view of the configuration of “C” in FIG. FIG. 6 is an enlarged schematic view of the configuration of “D” in FIG. FIG. 7 is an enlarged schematic view of the configuration of “E” in FIG. FIG. 8 is an enlarged schematic view of the configuration of “F” in FIG.

The present invention relates to an automatic cement placing device, and is mainly applied to the field of cement placing. Further description will be given below with reference to the drawings of the present invention.

The automatic cement placing device according to the present invention includes a main frame 19 installed symmetrically in the front-rear direction, and a rotatable roller localization shaft 22 is installed at the bottom end of the main frame 19, and the roller localization shaft 22 is installed. A roller frame 23 is fixedly installed at the lower end of the roller frame 23, a rotatable roller shaft 24 is installed on the roller frame 23, a roller 25 is fixedly installed on the roller shaft 24, and the main frame 19 is forced by force. When the pulley 25 is pushed and moved, the roller 25 can be rotated and the entire apparatus of the present invention can be driven and displaced, and the stop plate 26 is arranged so as to exhibit a rectangle at the bottom end of the main frame 19, and the stop is said. The plate 26 limits the casting range of the apparatus of the present invention, a main power space 100 is installed in the top wall of the main frame 19, and a main power mechanism 101 is installed in the main power space 100. The main transmission space 200 is installed in the left and right side walls of the main power space 100, the main pulley mechanism 201 is installed in the main transmission space 200, and the main power mechanism 101 and the main pulley mechanism 201 Are rotatably connected, the main power mechanism 101 can drive the main pulley mechanism 201, an operating space 900 is installed in the main frame 19, and a main guide rail is installed on the top wall of the operating space 900. 18 is installed, and a subframe 32 that can slide in the left-right direction is installed on the main guide rail 18, the subframe 32 and the main pulley mechanism 201 are fixedly connected, and the main pulley mechanism 201 rotates. The sub-frame 32 can be slid in the left-right direction, the sub-guide rails 45 are fixedly installed on the left and right side walls of the sub-frame 32, and the operating housing 31 is installed at the lower end of the sub-frame 32. An auxiliary power space 300 is installed in the operating housing 31, an auxiliary power mechanism 301 is installed in the auxiliary power space 300, and an auxiliary pulley mechanism 401 is installed on the upper end surface of the operating housing 31. It is installed symmetrically and fixedly, and the auxiliary pulley mechanism 401 and the auxiliary guide rail 45 are connected so as to be rotatable, and the auxiliary power mechanism 301 and the auxiliary pulley mechanism 401 are connected so as to be rotatable. The auxiliary power mechanism 301 can drive the auxiliary pulley mechanism 401, and the auxiliary pulley mechanism 401 can drive the operating housing 31 and slide the auxiliary guide rail 45 in the front-rear direction. The push plate control space 500 is installed symmetrically in the lower wall of the space 300, and the push plate control space 5 is installed. A push plate control mechanism 501 is installed in 00, the push plate control mechanism 501 and the auxiliary power mechanism 301 are rotatably connected, and the auxiliary power mechanism 301 can drive the push plate control mechanism 501. Push plate mechanisms 601 are installed on the left and right outer walls of the operating housing 31, and the push plate control mechanism 501 and the push plate mechanism 601 are connected so as to mesh with each other, and the push plate control mechanism 501 is connected to the push plate. The operation of the mechanism 601 can be controlled, the push plate mechanism 601 allows the cement in the casting area to be stacked flat, and the cement pump 28 is fixedly installed in the operating housing 31, and the cement pump 28 The feed pipe 27 is installed at the upper end so as to communicate with the feed pipe 27, the upper end of the feed pipe 27 can be connected to the cement storage device, and the feed pipe 29 is installed at the lower end of the cement pump 28 so as to communicate with each other. An injection valve 81 is installed at the lower end of the delivery pipe 29 so as to communicate with the injection valve 81, a slidable injection valve slider 82 is installed in the injection valve 81, and an injection valve is installed at the lower end of the injection valve slider 82. When the spring 83 is fixedly installed and the cement pump 28 is started, the cement pump 28 transfers the cement in the cement storage device into the injection valve 81 via the feed pipe 27 and the feed pipe 29. When the suction and pressure reach a preset value, the cement pushes the injection valve 82 to overcome the elasticity of the injection valve spring 83 and slides it downwards, and the cement is removed from within the injection valve 81. It is blown out and placed in the target area.

The main power mechanism 101 will be described in detail below according to an embodiment. The main power mechanism 101 includes a main motor 11 fixedly installed in the main power space 100, and the main motor 11 includes a main power. The shaft 12 is connected so as to be able to transmit, and the first power cap gear 13 is symmetrically and fixedly installed at both left and right ends of the main power shaft 12, and the second power cap gear 13 is installed with the second power. The bead gear 14 is connected so as to mesh with each other, the second power shaft 16 is fixedly installed at the axis of the second power bead gear 14, and the second power shaft 16 is located on the front and rear inner walls of the main power space 100. It is installed so that it can rotate, a first pulley 15 is fixedly installed on the second power shaft 16, a first belt 17 is connected to the first pulley 15, and the first belt 17 and the main pulley are connected. When the main motor 11 is operated by being connected to the mechanism 201 so as to be rotatable, the main motor 11 is connected to the main power shaft 12, the first power cap gear 13, and the second power cap gear 14. The power shaft 16 is driven and rotated, and the second power shaft 16 can drive the main pulley mechanism 201 by the first pulley 15 and the first belt 17.

The main pulley mechanism 201 will be described in detail below according to an embodiment, and the main pulley mechanism 201 includes a first transmission shaft 36 installed so as to be rotatable in the main transmission space 200, and the first transmission shaft is included. A second pulley 35 is fixedly installed on the 36, the second pulley 35 and the first belt 17 are connected to each other, and a first transmission pulley gear 34 is fixedly installed on the first transmission shaft 36. The first transmission pulley gear 34 is located at the rear end of the second pulley 35, and the second transmission pulley gear 37 is connected to the lower end of the first transmission pulley gear 34 so as to mesh with the first transmission pulley gear 34. A second transmission shaft 38 is fixedly installed at the axis of the gear 37, and the second transmission shaft 38 is installed so as to be rotatable in the lower wall of the main transmission space 200, and the second transmission shaft 38 is installed. A third transmission pulley gear 39 is fixedly installed at the lower end of the transmission, the third transmission pulley gear 39 is located in the working space 900, and the fourth transmission is at the lower end of the third transmission pulley gear 39. The pulley gears 44 are connected so as to mesh with each other, the third transmission shaft 42 is fixedly installed at the axial center of the fourth transmission pulley gear 44, and the first fixed position block 41 is front and rear on the top wall of the working space 900. It is installed symmetrically, and the front and rear ends of the third transmission shaft 42 can be installed so as to be rotatable in the first fixed position block 41, and the pulley 43 is fixed to the third transmission shaft 42. The pulley 43 is installed so that the belt conveyor 21 is wound around the pulley 43, the belt conveyor 21 and the sub-frame 32 are fixedly connected, and the first belt 17 is fixedly connected by the second pulley 35. The first transmission shaft 36 is driven and rotated, and the first transmission shaft 36 is driven and rotated by the first transmission pulley gear 34 and the second transmission pulley gear 37, and the second transmission shaft 38 is driven and rotated. The second transmission shaft 38 drives and rotates the third transmission shaft 42 by the third transmission umbrella gear 39 and the fourth transmission umbrella gear 44, and the third transmission shaft 42 further rotates the pulley 43 and the belt conveyor 21. The sub-frame 32 can be driven and slid in the left-right direction.

According to an embodiment, the auxiliary power mechanism 301 will be described in detail below, the auxiliary power mechanism 301 includes an auxiliary motor 56 fixedly installed in the auxiliary power space 300, and the auxiliary motor 56 includes a third. The power shaft 53 is connected so as to be able to transmit, the third pulley 55 is installed symmetrically and fixedly on the third power shaft 53, and the second belt 54 is connected to the third pulley 55. The second belt 54 and the push plate control mechanism 501 are rotatably connected to each other, and when the auxiliary motor 56 is operated, the auxiliary motor 56 is said by the third power shaft 53 and the third pulley 55. The second belt 54 is driven and rotated, the second belt 54 can further drive the push plate control mechanism 501, and fourth pulleys 52 are fixedly installed at both ends of the third power shaft 53, and the above. A third belt 51 is connected to the fourth pulley 52, the third belt 51 and the auxiliary pulley mechanism 401 are connected so as to be rotatable, and the third power shaft 53 drives the fourth pulley 52. When rotated, the fourth pulley 52 can further drive the auxiliary pulley mechanism 401 by the third belt 51.

The sub-pulley mechanism 401 will be described in detail below according to an embodiment, and the sub-pulley mechanism 401 includes a second localization block 49 that is symmetrically and fixedly installed on the top end surface of the operating housing 31. The second pulley 46 is fixedly installed on the second localization block 49 so that the pulley localization shaft 47 can rotate, and the second pulley 46 is fixedly installed at one end of the pulley localization shaft 47 close to the sub-frame 32. The second pulley 46 can slide in the front-rear direction on the auxiliary guide rail 45, a fifth pulley 48 is fixedly installed on the pulley localization shaft 47, and the fifth pulley 48 and the upper end of the third belt 51 are connected to each other. Then , when the third belt 51 drives and rotates the pulley localization shaft 47 by the fifth pulley 48, the pulley localization shaft 47 further drives the second pulley 46 and rotates on the sub guide rail 45. Then, the operating housing 31 is driven and slid in the front-rear direction on the sub-guide rail 45.

The push plate control mechanism 501 will be described in detail below according to an embodiment, and the push plate control mechanism 501 includes a first control shaft 57 installed so as to be rotatable in the push plate control space 500, and the first control shaft 57 is included. A sixth pulley 58 is fixedly installed on the control shaft 57, and the sixth pulley 58 and the lower end of the second belt 54 are connected to each other at one end of the first control shaft 57 away from the center of symmetry. The first friction plate 59 is fixedly installed, and in the push plate control space 500, a rotatable second control shaft 79 is installed on one side away from the center of symmetry, and the second control shaft 79 is close to the center of symmetry. The hollow shaft 62 is installed on one side so as to be rotatable and slidable, and a non-rotatable magnetic slider 63 is installed on the upper end of the hollow shaft 62, and on one side of the magnetic slider 63 away from the center of symmetry. The control spring 64 is fixedly installed, the electromagnet 65 is fixedly installed at one end of the control spring 64 away from the center of symmetry, and the second friction plate 61 is fixedly installed at one end of the hollow shaft 62 close to the center of symmetry. Is fixedly installed, the second friction board 61 and the first friction board 59 are contacted and connected by friction, and one side of the second control shaft 79 away from the center of symmetry and the push plate mechanism 601 The second belt 54 is fixedly connected, the first control shaft 57 is driven and rotated by the sixth pulley 58, and the first control shaft 57 is driven and rotated by the first friction plate 59. At this time, the electric magnet 65 is energized, the electric magnet 65 is interlocked with the magnetic slider 63 by the control spring 64 and slid to one side close to the first friction plate 59, and the magnetic slider 63 is the hollow shaft. The 62 and the second friction plate 61 are driven and slid to one side close to the first friction plate 59, and the first friction plate 59 drives and rotates the second friction plate 61 by friction, and the first friction plate 59 is rotated. The two friction plates 61 can drive and rotate the second control shaft 79 by the hollow shaft 62, and the second control shaft 79 can further drive the push plate mechanism 601.

The push plate mechanism 601 will be described in detail below according to an embodiment, and the push plate mechanism 601 has a third localization block 66 that is symmetrically and fixedly installed on the left and right outer walls of the operating housing 31. Including, the third localization block 66 is installed so that the constant position shaft 68 can rotate, and the constant position bevel gear 67 is fixedly installed on the first constant position shaft 68, and the first constant position bevel gear is installed. In 67, the second localization gear 78 is engaged with one side close to the second control shaft 79, and the second localization gear 78 is separated from the operating housing 31 on the second control shaft 79. A first conrod 69 is fixedly installed on one end of the constant shaft 68, and the first conrod 69 is located at the front end of the constant position bevel gear 67 and is the first conrod. A rotatable second conrod 73 is installed at the lower end of the 69, and the upper end of the second conrod 73 is connected to the first conrod 69 by a hinge with a position pin 71, and is attached to the left and right outer walls of the operating housing 31. A fourth localization block 72 is fixedly installed, a slider 75 that can slide in the vertical direction is installed in the fourth localization block 72, and the slider 75 is connected to the lower end of the second control rod 73 by a second localization pin 74. A push plate 76 is fixedly installed at one end of the slider 75 separated from the second control shaft 79 by being connected by a hinge, and the second control shaft 79 is the second localization gear 78 and the first constant position. The bevel gear 67 drives and rotates the constant position shaft 68, the constant position shaft 68 drives and rotates the first conrod 69, and the first conrod 69 is the constant position pin 71, the said. The slider 75 is driven by the second control rod 73 and the second localization pin 74 to slide downward, and the slider 75 further drives the push plate 76 to slide downward to flatten the cast cement. Push.

The steps of using the automatic cement placing device of the present invention will be described in detail with reference to FIGS. 1 to 8 below.

When casting cement into the target area, the main frame 19 is forcefully pushed, and the rollers 25 rotate, further driving the entire automatic cement casting device of the present invention to be targeted. When displaced to the area, the cement pump 28 is started, the cement pump 28 sucks the cement in the cement storage device into the injection valve 81 by the feed pipe 27 and the feed pipe 29, and when the force reaches the preset value, The cement pushes the injection valve 82 to overcome the elasticity of the injection valve spring 83 and slides it downwards, and the cement is blown out of the injection valve 81 to cast in the target area and also. The main motor 11 is operated, the main motor 11 drives and rotates the second power shaft 16 by the main power shaft 12, the first power pulley gear 13, and the second power pulley gear 14, and the second power shaft 16 is the first. The second pulley 35 is driven and rotated by the pulley 15 and the first belt 17, the second pulley 35 drives and rotates the first transmission shaft 36, and the first transmission shaft 36 is the first transmission pulley gear 34 and the first transmission shaft 36. The second transmission shaft 38 is driven and rotated by the second transmission umbrella gear 37, and the second transmission shaft 38 is driven and rotated by the third transmission umbrella gear 39 and the fourth transmission umbrella gear 44. The third transmission shaft 42 further drives the auxiliary frame 32 by the pulley 43 and the belt conveyor 21 to slide in the left-right direction, and the sub-frame 32 further drives the operating housing 31 to slide in the left-right direction, and then the operating housing. 31 quickly slides into the target area to drive, and at the same time operates the sub motor 56, the sub motor 56 drives and rotates the third power shaft 53, and the third power shaft 53 is the fourth. The pulley 52 is driven to rotate, the fourth pulley 52 further drives and rotates the pulley localization shaft 47 by the third belt 51 and the fifth pulley 48, and the pulley localization shaft 47 further drives the second pulley 46. It is rotated by the sub-guide rail 45, and the operating housing 31 is driven and slid in the front-rear direction by the sub-guide rail 45, and the operating housing 31 is quickly slid into the target area for casting. After the placement is completed, the cement pump 28 is stopped, the sub motor 56 drives the second belt 54 by the third power shaft 53 and the third pulley 55 to rotate, and the second belt 54 is first controlled by the sixth pulley 58. The shaft 57 is driven to rotate, the first control shaft 57 drives and rotates the first friction plate 59, and at this time, the electric magnet 65 is energized, and the electric magnet 65 is the control spring 6. 4 interlocks the magnetic slider 63 and slides it to one side close to the first friction plate 59, and the magnetic slider 63 drives the hollow shaft 62 and the second friction plate 61 and slides to one side close to the first friction plate 59. The first connecting rod 59 drives and rotates the second connecting rod 61 by friction, the second connecting rod 61 drives and rotates the second control shaft 79 by the hollow shaft 62, and the second control shaft 79 The second stereotaxic gear 78 and the constitutive bevel gear 67 drive and rotate the constant shaft 68, the constitutive shaft 68 drives and rotates the first connecting rod 69, and the first connecting rod 69 is the first. The localization pin 71, the second connecting rod 73 and the second localization pin 74 drive the slider 75 and slide it downward, and the slider 75 further drives the push plate 76 and slides it downward to further flatten the casting cement. At the same time, the operating housing 31 drives the push plate 76 to slide in the left-right direction, and the casting cement is piled up flat.

Beneficial effects of the present invention: The present invention is simple to configure, convenient to maintain and use. The automatic cement placement device of the present invention automatically places cement in the cement placement area, and after the cement placement is completed, the cement is piled up flat and cement is placed by a general worker. It is more efficient and convenient than installation, the effect of cement placement is stable and reliable without being affected by traditional construction methods, and at the same time, the construction can be done quickly with a great deal of labor saving, and the cement is the original Due to the low construction efficiency, it is possible to effectively avoid the situation where the initial solidification phenomenon occurs without cement placement yet, and the automatic cement placement device of the present invention is applied to a large construction site and greatly improves the construction efficiency. Can be enhanced.

The above is merely a specific embodiment of the invention, and the scope of protection of the invention is not limited to this, and all changes or replacements that can be conceived without the passage of creative labor are within the scope of protection of the invention of the present application. Including inside. Therefore, the scope of protection of the invention should be based on the scope of protection limited to the claims of the patent.

Claims (7)

A rotatable roller localization shaft is installed at the bottom end of the main frame, and a roller frame is fixedly installed at the lower end of the roller localization shaft, including a main frame installed symmetrically in the front-rear direction. A rotatable roller shaft is installed, and a roller is fixedly installed on the roller shaft.
Stop plates are arranged so as to have a rectangular shape at the bottom end of the main frame, the stop plates limit the casting range of the apparatus of the present invention, and a main power space is installed in the top wall of the main frame. A main power mechanism is installed in the main power space, a main transmission space is installed in the left and right side walls of the main power space, and a main pulley mechanism is installed in the main power space. The main power mechanism and the main pulley mechanism are connected so as to be rotatable.
An operating space is installed in the main frame, a main guide rail is installed on the top wall of the operating space, and a sub-frame that can slide in the left-right direction is installed on the main guide rail. It is fixedly connected to the main pulley mechanism and
Sub-guide rails are fixedly installed on the left and right side walls of the sub-frame, an operating housing is installed at the lower end of the sub-frame, and an auxiliary power space is installed in the operating housing. An auxiliary power mechanism is installed in the power space, and an auxiliary pulley mechanism is symmetrically and fixedly installed on the upper end surface of the operating housing, and the auxiliary pulley mechanism and the auxiliary guide rail rotate. The auxiliary power mechanism and the auxiliary pulley mechanism are connected so as to be able to rotate.
A push plate control space is symmetrically installed in the lower wall of the auxiliary power space, a push plate control mechanism is installed in the push plate control space, and the push plate control mechanism and the auxiliary power mechanism are installed. Is connected so that it can rotate,
Push plate mechanisms are installed on the left and right outer walls of the operating housing, and the push plate control mechanism and the push plate mechanism are connected so as to mesh with each other.
A cement pump is fixedly installed in the operating housing, and a feed pipe is installed so as to communicate with the upper end of the cement pump, and the upper end of the feed pipe and the cement storage device may be connected to each other. It can be installed so that the delivery pipe communicates with the lower end of the cement pump, the injection valve is installed at the lower end of the delivery pipe so as to communicate, and a slideable injection valve slider is installed in the injection valve. An automatic cement placing device, characterized in that an injection valve spring is fixedly installed at the lower end of the injection valve slider. The main power mechanism includes a main motor fixedly installed in the main power space, is connected to the main motor so that the main power shaft can be transmitted, and first is connected to the left and right ends of the main power shaft. The power cap gears are installed symmetrically and fixedly, the second power cap gear is connected to the first power cap gear so as to mesh with each other, and the second power shaft is attached to the axis of the second power cap gear. Is fixedly installed,
The second power shaft is installed so as to be rotatable on the front and rear inner walls of the main power space, the first pulley is fixedly installed on the second power shaft, and the first belt is connected to the first pulley. The automatic cement placing device according to claim 1, wherein the first belt and the main pulley mechanism are rotatably connected to each other. The main pulley mechanism includes a first transmission shaft installed so as to be rotatable in the main transmission space, and a second pulley is fixedly installed on the first transmission shaft, and the second pulley and the first transmission shaft are fixedly installed. It is connected to one belt, the first transmission bevel gear is fixedly installed on the first transmission shaft, and the first transmission bevel gear is located at the rear end of the second pulley.
The second transmission cap gear is connected to the lower end of the first transmission cap gear so as to mesh with the second transmission cap gear, the second transmission shaft is fixedly installed at the axis of the second transmission cap gear, and the second transmission shaft is It is installed so as to be rotatable in the lower wall of the main transmission space, a third transmission bevel gear is fixedly installed at the lower end of the second transmission shaft, and the third transmission bead gear is in the operating space. The fourth transmission gear is connected to the lower end of the third transmission gear so as to mesh with the third transmission gear, and the third transmission shaft is fixedly installed at the axis of the fourth transmission gear.
A first position block is installed symmetrically in the front-rear and left-right directions on the top wall of the working space, and both front and rear ends of the third transmission shaft can be installed so as to be rotatable in the first position block. claims pulley to the third transmission shaft is fixedly installed, the the pulleys are arranged such that the belt conveyor winds, the said belt conveyor and the auxiliary frame, characterized in that fixedly connected Item 2. The automatic cement placing device according to Item 2 . The auxiliary power mechanism includes an auxiliary motor fixedly installed in the auxiliary power space, is connected to the auxiliary motor so that a third power shaft can be transmitted, and a third pulley is connected to the third power shaft. Is installed symmetrically and fixedly, a second belt is connected to the third pulley, and the second belt and the push plate control mechanism are connected so as to be rotatable.
Fourth pulleys are fixedly installed at both ends of the third power shaft, a third belt is connected to the fourth pulley, and the third belt and the auxiliary pulley mechanism are connected so as to be rotatable. The automatic cement placing device according to claim 1, wherein the cement is provided. The auxiliary pulley mechanism includes a second localization block that is symmetrically and fixedly installed on the top end surface of the operating housing, and is installed in the second localization block so that the pulley localization axis can rotate. A second pulley is fixedly installed at one end of the pulley localization axis close to the auxiliary frame, the second pulley can slide in the front-rear direction on the auxiliary guide rail, and a fifth pulley is attached to the pulley localization axis. The automatic cement placing device according to claim 4 , wherein the fifth pulley is fixedly installed and the fifth pulley and the upper end of the third belt are connected to each other . The push plate control mechanism includes a first control shaft installed so as to be rotatable in the push plate control space, and a sixth pulley is fixedly installed on the first control shaft, and the sixth pulley and the sixth pulley are fixedly installed. It is connected to the lower end of the second belt, and a first friction disc is fixedly installed at one end of the first control axis away from the center of symmetry, and on one side away from the center of symmetry in the push plate control space. A rotatable second control shaft is installed, and a hollow shaft is installed on one side of the second control shaft close to the center of symmetry so that it can rotate and slide.
A non-rotatable magnetic slider is installed at the upper end of the hollow shaft, a control spring is fixedly installed on one side of the magnetic slider away from the center of symmetry, and an electromagnet is installed at one end of the control spring away from the center of symmetry. A second friction disc is fixedly installed at one end of the hollow shaft close to the center of symmetry, and the second friction disc and the first friction disc are contacted and connected by friction. The automatic cement placing device according to claim 4 , wherein one side of the second control shaft away from the center of symmetry and the push plate mechanism are fixedly connected. The push plate mechanism includes a third localization block that is symmetrically and fixedly installed on the left and right outer walls of the operating housing, and is installed in the third localization block so that the first localization axis can rotate. A constant bevel gear is fixedly installed on the constant position shaft, and the second localization bevel gear is connected to one side of the constant position bevel gear close to the second control shaft so as to mesh with the second control shaft. , The second localization bevel gear is fixedly installed at one end of the second control shaft away from the operating housing.
A first connecting rod is fixedly installed on the first connecting rod, the first connecting rod is located at the front end of the first connecting rod, and a rotatable second connecting rod is installed at the lower end of the first connecting rod. The upper end of the second connecting rod is connected to the first connecting rod by a hinge with a first connecting rod, and fourth localization blocks are fixedly installed on the left and right outer walls of the operating housing to form the fourth connecting rod. Is equipped with a slider that can slide in the vertical direction, the slider is connected to the lower end of the second connecting rod by a second localization pin with a hinge, and a push plate is fixed to one end of the slider away from the second control shaft. The automatic connecting rod casting device according to claim 6 , wherein the connecting rod is installed in the connecting rod.

Images