Concrete mixer capable of enhancing performance of recycled aggregate

Abstract

The utility model discloses a concrete mixer capable of enhancing the performance of recycled aggregate, which relates to the technical field of constructional engineering equipment and particularly comprises a barrel device, the barrel device is erected on a supporting structure and driven by a motor to rotate, and a mixing device is detachably mounted in the barrel device. A conveying device for receiving recycled aggregate is arranged below the barrel device, a liquid control device for cleaning the barrel device is further arranged, the barrel device comprises a barrel, an arc-shaped cover plate is connected to the barrel through an arc-shaped cover plate hinge shaft, the arc-shaped cover plate is in limiting connection with the barrel through a screw, and the barrel is in transmission connection with a motor through a connecting shaft. The stirring device comprises a stirring shaft, stirring blades are arranged on the stirring shaft, the liquid control device comprises a liquid conveying pipe communicated with the cylinder body, and the liquid conveying pipe is connected with a water controller and is connected with a water tank through a liquid inlet pipe, so that the mechanical property of the aggregate can be enhanced, the manual transportation cost is reduced, the stirring shaft and the conveying device can be assembled and disassembled, the discharging is simple, and the cleaning is convenient.

Description

Technical Field

[0001] This utility model relates to the field of construction equipment technology, specifically to a concrete mixer that can enhance the performance of recycled aggregates. Background Technology

[0002] Recycled aggregates refer to recyclable materials formed by processing waste concrete blocks or other construction wastes through a series of specific processes and screening. Recycled concrete refers to green and environmentally friendly concrete made using recycled aggregates. Using recycled aggregates to make recycled concrete can not only reduce the pollution of construction waste to the environment, but also reduce the construction industry's dependence on natural resources, thus achieving sustainable development.

[0003] Using screened recycled aggregates in concrete production reduces the mechanical properties of the concrete. However, mechanically activating the aggregates before using them in concrete preparation significantly improves their strength. Mechanically strengthening recycled aggregates before their use in the construction industry can not only solve the problem of construction waste accumulation but also achieve resource conservation and ensure mechanical properties, offering broad benefits and promising prospects. Currently, the processing and transportation methods are cumbersome, requiring the aggregates to be transported to separate aggregate strengthening equipment for strengthening before being transported to the application site. This increases the cost of use and hinders the widespread use of recycled aggregates. Therefore, there is a need for an integrated equipment that combines aggregate strengthening and concrete mixing. Utility Model Content

[0004] (a) Technical problems to be solved

[0005] To overcome the shortcomings of existing technologies, a concrete mixer that can enhance the performance of recycled aggregates is proposed. It can enhance the mechanical properties of aggregates, reduce labor transportation costs, and the mixing shaft and conveying device can be assembled and disassembled, making discharge simple and easy to clean.

[0006] (II) Technical Solution

[0007] This utility model is achieved through the following technical solution: This utility model proposes a concrete mixer that can enhance the performance of recycled aggregates, including a cylindrical device and a control device. The cylindrical device is mounted on a supporting structure and is driven to rotate by a motor. A mixing device is detachably installed inside the cylindrical device. A conveying device for receiving recycled aggregates is arranged directly below the cylindrical device. A liquid control device for cleaning the cylindrical device is arranged on one side of the control device. The cylindrical device includes a cylindrical body, and an arc-shaped cover plate is connected to the cylindrical body via an arc-shaped cover plate hinge shaft. The arc-shaped cover plate is limited to the cylindrical body by screws. The cylindrical body is connected to the motor for transmission via a connecting shaft. The mixing device includes a mixing shaft with several mixing blades. The liquid control device includes a liquid delivery pipe connected to the cylindrical body. The liquid delivery pipe is connected to a water controller and connected to a water tank via an inlet pipe.

[0008] Furthermore, both the cylindrical body and the arc-shaped cover plate are equipped with handles.

[0009] Furthermore, track grooves are provided on both sides of the cylinder, and the two ends of the stirring shaft slide into the cylinder along the track grooves and are connected to the connecting shaft through a connector. A buckle is provided above the connecting shaft to restrict the movement of the connector.

[0010] Furthermore, the cylinder is provided with a cleaning port for the infusion tube to extend into, and the cleaning port is provided with a cleaning port cover.

[0011] Furthermore, the support structure includes a base, a fixing frame, fasteners, and a motor bracket. The base is connected to the cylinder through the fixing frame, the fasteners combine the connecting shaft with the fixing frame, and the motor bracket is located on the right side of the base to hold the motor.

[0012] Furthermore, the material conveying device includes a side guard, a discharge plate, a screen, a screen fixing port, a baffle, and a baffle hinge shaft. The side guard is located on both sides of the discharge plate, the discharge plate is set below the cylinder, the screen can be placed on the discharge plate through the screen fixing port, the baffle is set at the bottom edge of the screen, and the baffle is rotatably connected to the screen through the baffle hinge shaft.

[0013] Furthermore, a baffle retainer is provided at the bottom of the unloading plate, and the baffle retainer is fixedly connected to the baffle by a fixing rope.

[0014] Furthermore, the unloading plate is inclinedly positioned below the cylinder via an unloading plate support platform.

[0015] (III) Beneficial Effects

[0016] Compared with the prior art, this utility model has the following advantages:

[0017] This utility model discloses a concrete mixer that enhances the performance of recycled aggregates. Through bearing-controlled cylinder rotation and a detachable mixing shaft, it can not only be used for concrete mixing but also for reinforcing recycled aggregates. This satisfies diverse operational needs while reducing economic costs, minimizing ore resource mining, and effectively ensuring the mechanical properties of recycled concrete. The use of an arc-shaped cover hinge shaft simplifies the difficulties of manual handling when opening the wear meter cover and precise positioning when closing it. The use of a cleaning port cover, cleaning port, and pressurization design makes cleaning the cylinder more convenient. The use of a discharge plate, side guards, and a detachable screen further meets the transportation needs of aggregates of different particle sizes and the need for integral discharge after concrete mixing. The use of buckles and fasteners ensures tight fixation of the disassembled equipment, limiting vertical displacement and relative torsion. The control panel allows for setting cleaning, speed, timer, and pressurization functions, simplifying manual operation. The use of a water controller transports water from the tank to the cylinder, greatly reducing cleaning after the equipment has finished working. Attached Figure Description

[0018] Figure 1 This is a schematic diagram of the structure of this utility model.

[0019] Figure 2 This is a cross-sectional schematic diagram of the present invention.

[0020] Figure 3 yes Figure 1 Side view of the unloading plate support platform.

[0021] 101-Cylinder body; 102-Arc-shaped cover hinge shaft; 103-Arc-shaped cover; 104-Screw; 105-Handle; 106-Cleanup port cover; 107-Cleanup port; 108-Snap-on; 109-Fixer; 110-Railway groove; 201-Support; 202-Fixing frame; 203-Fastener; 204-Motor bracket; 205-Unloading plate support; 301-Side guard; 3 02-Discharge plate; 303-Screen; 304-Screen fixing port; 305-Baffle; 306-Baffle hinge shaft; 307-Fixing rope; 308-Baffle fixing device; 401-Control panel; 402-Control line; 403-Connecting shaft; 404-Motor; 501-Water tank; 502-Inlet pipe; 503-Water controller; 504-Inlet pipe; 601-Agitator blade; 602-Agitator shaft. Detailed Implementation

[0022] To make the objectives, technical solutions, and advantages of this utility model clearer, the present utility model will be further described in detail below with reference to the accompanying drawings and embodiments. It should be understood that the specific embodiments described herein are merely illustrative of the present utility model and are not intended to limit the present utility model.

[0023] like Figures 1-3The concrete mixer shown is designed to enhance the performance of recycled aggregates. The drum assembly includes a drum body 101, an arc-shaped cover hinge shaft 102, an arc-shaped cover plate 103, screws 104, a handle 105, a cleaning port cover 106, a cleaning port 107, a buckle 108, a retainer 109, and a track groove 110. The drum body 101 is connected to a motor 404 via a connecting shaft 403. The arc-shaped cover plate 103 is connected to the drum body 101 via the arc-shaped cover hinge shaft 102. Screws 104 and 105 are also included. 4. Connect the arc-shaped cover plate 103 to the cylinder 101. The handle 105 is installed on the cylinder 101 and the arc-shaped cover plate 103. The cleaning port cover plate 106 and the cleaning port 107 are on the arc-shaped cover plate 103. When the two are separated, the infusion tube 504 can extend into the cleaning port 107. The buckle 108 and the connector 109 are set above the connecting shaft 403. The buckle 108 can limit the displacement of the connector 109. The track groove 110 is set inside the cylinder 101 and its size is the same as that of the stirring shaft 602.

[0024] The support structure includes a support device including a base 201, a fixing frame 202, fasteners 203, a motor bracket 204, and a discharge plate support platform 205. The base 201 is connected to the cylinder 101 through the fixing frame 202. The fasteners 203 combine the connecting shaft 403 with the fixing frame 203. The motor bracket 204 is connected to the motor 404 on the right side of the base 205. The discharge plate support platform 205 is located above the base 201 and below the cylinder 101, fixing the discharge plate 302.

[0025] The material conveying device includes a side guard 301, a discharge plate 302, a screen 303, a screen fixing port 304, a baffle 305, a baffle hinge shaft 306, a fixing rope 307, and a baffle fixer 308. The side guard 301 is located on both sides of the discharge plate 302, which is located below the cylinder 101. The screen 303 can be placed on the discharge plate 302 through the screen fixing port 304. The baffle 305 is located at the bottom edge of the screen 303. The baffle hinge shaft 306 connects the screen 303 and the baffle 305. The fixing rope 307 is located on the baffle 305, and the baffle fixer 308 is located at the bottom end of the discharge plate 302.

[0026] The control device includes a control panel 401, a control line 402, a connecting shaft 403, and a motor 404. The control panel is located above the support platform 201. The control line 402 connects the control panel 401 and the water controller 503. The connecting shaft 403 extends from inside the motor 404, passes through the fastener 203, and connects to the cylinder 101. The motor 404 is located inside the control panel 401.

[0027] The liquid control device includes a water tank 501, an inlet pipe 502, a water controller 503, and an inlet pipe 504. The water tank 501 is placed next to the control panel 401. The inlet pipe 502 connects the water controller 503 to the water tank 501. The water controller 503 is placed directly above the water tank 501. The inlet pipe 504 connects the water controller to the cylinder 101.

[0028] The stirring device includes stirring blades 601 and stirring shaft 602. The stirring blades 601 are connected to the stirring shaft 602. The stirring shaft 602 can be installed inside the cylinder 101 through the track groove 110 and the vertical displacement is restricted by the retainer 109.

[0029] The concrete mixer mentioned in this utility model can enhance the performance of recycled aggregates. In specific use, first unscrew the screws 104 on the arc-shaped cover plate 103, open the arc-shaped cover plate 103 with the handle 105, and form an inlet through the hinge shaft 102 of the arc-shaped cover plate. Put the recycled aggregate and steel balls into the cylinder 101 together, close the arc-shaped cover plate 103 with the handle 105, and use the screws 104 to firmly fix the arc-shaped cover plate 103 to the cylinder 101. At the same time, rotate the cleaning port cover plate 106 onto the cleaning port 107 to prevent particles from falling from the cleaning port 107 when the equipment is running.

[0030] Then, the rotation speed and number of rotations are set via the control panel 401. The equipment automatically stops after completing the set parameters. At this point, the screen 303 is placed on the discharge plate 302 along the screen fixing opening 304. After installation, the screws 104 are removed, and the arc-shaped cover plate 103 is opened to form an outlet. Using the control panel 401, the outlet of the cylinder 101 is aligned with the discharge plate 302 to pour out the recycled aggregate. The recycled aggregate then rolls and displaces along the screen 303, which has a certain angle of inclination. Its particle size... Fine particles with a diameter d ≤ 5 mm are collected into the screen 303 by the screening device and converge at the baffle 305. Recycled aggregate with a diameter d > 5 mm and steel balls converge at the bottom of the discharge plate 302 and fall down along the inclined direction of the discharge plate 302. At this time, the fixing rope 307 fixed at the baffle fixing device 308 can be removed and the baffle 305 can be lifted. The baffle 305 will rotate around the baffle hinge shaft 306, which can collect fine particles with a diameter ≤ 5 mm collected in the screen 303.

[0031] After collection, the screen 303 is removed along the screen fixing port 304, and the cylinder 101 and the discharge plate 302 are cleaned. The water pressure and water flow rate are adjusted on the control panel 401, the cleaning port cover 106 is opened, and the head of the infusion pipe 504 is rotated to form a cleaning nozzle and inserted into the cleaning port 107 for cleaning. At this time, water is transferred from the water tank 501 along the inlet pipe 502 through the water controller 503 to the infusion pipe 504. The cleaned water flows out from the discharge plate 302 through the outlet.

[0032] After all excess water has drained out and the surface remains moist, insert the stirring shaft 602 into the cylinder 101 through the inlet along the track groove 110. When the stirring shaft 602 is flush with the end of the connecting shaft 402, use the buckle 108 and the retainer 109 to restrict the displacement of the stirring shaft 602. At this point, the reinforced recycled aggregate can be placed into the cylinder 101 through the inlet. Close the arc-shaped cover plate 103 with the handle 105 and use the screws 104 to firmly fix the arc-shaped cover plate 103 to the cylinder 101. At the same time, rotate the cleaning port cover plate 106 onto the cleaning port 107 to prevent particles from falling from the cleaning port 107 during equipment operation. Set the rotation speed and rotation time on the control panel 401. Once the equipment completes the set parameters and stops automatically, open the cleaning port cover 106, insert the infusion tube 504, and input the mixing ratio water volume on the control panel 401. After completion, the water controller 503 draws water from the water tank 501 according to the input weight and inputs it into the cylinder 101. When the specified input volume is completed, the water controller 503 stops automatically. At this time, pull out the infusion tube 504, rotate the cleaning port cover 106 to the cleaning port 107, and continue to set the rotation speed and rotation time on the control panel 401. After completion, remove the screw 104, open the arc-shaped cover 103, and use the control panel 401 to align the outlet with the discharge plate 302. At this time, the concrete is collected into the container along the discharge plate 302.

[0033] After the above operations are completed, the inside of the cylinder 101 is cleaned. The water pressure and water flow rate are adjusted on the control panel 401, the cleaning port cover 106 is opened, the head of the infusion tube 504 is rotated to form a cleaning nozzle and inserted into the cleaning port 107 for cleaning. The cleaned water flows out from the discharge plate through the outlet.

[0034] The embodiments described above are merely preferred embodiments of the present invention and are not intended to limit the concept and scope of the present invention. Various modifications and improvements made to the technical solutions of the present invention by those skilled in the art without departing from the design concept of the present invention should fall within the protection scope of the present invention. The technical content for which protection is sought in the present invention has been fully described in the claims.

Claims

1. A concrete mixer that enhances the performance of recycled aggregates, characterized in that: The device includes a cylindrical assembly and a control device. The cylindrical assembly is mounted on a support structure and is driven to rotate by a motor (404). A stirring device is detachably installed inside the cylindrical assembly. A conveying device for receiving recycled aggregate is located directly below the cylindrical assembly. A liquid control device for cleaning the cylindrical assembly is located on one side of the control device. The cylindrical assembly includes a cylindrical body (101). An arc-shaped cover plate (103) is connected to the cylindrical body (101) via an arc-shaped cover plate hinge shaft (102). The plate (103) is limited to the cylinder (101) by screws (104). The cylinder (101) is connected to the motor (404) via a connecting shaft (403). The stirring device includes a stirring shaft (602) with several stirring blades (601) on it. The liquid control device includes a liquid delivery pipe (504) connected to the cylinder (101). The liquid delivery pipe (504) is connected to the water controller (503) and connected to the water tank (501) via the liquid inlet pipe (502).

2. The concrete mixer for enhancing the performance of recycled aggregates according to claim 1, characterized in that: Both the cylindrical body (101) and the arc-shaped cover plate (103) are provided with handles (105).

3. The concrete mixer for enhancing the performance of recycled aggregates according to claim 1, characterized in that: The cylinder (101) has track grooves (110) on both sides. The two ends of the stirring shaft (602) slide into the cylinder (101) along the track grooves (110) and are connected to the connecting shaft (403) through a connector (109). A buckle (108) is provided above the connecting shaft (403) to restrict the movement of the connector (109).

4. The concrete mixer for enhancing the performance of recycled aggregates according to claim 1, characterized in that: The cylinder (101) is provided with a cleaning port (107) for the infusion tube (504) to extend into, and a cleaning port cover (106) is provided on the cleaning port (107).

5. The concrete mixer for enhancing the performance of recycled aggregates according to claim 1, characterized in that: The support structure includes a base (201), a fixing frame (202), a fastener (203), and a motor bracket (204). The base (201) is connected to the cylinder (101) through the fixing frame (202). The fastener (203) combines the connecting shaft (403) with the fixing frame (202). The motor bracket (204) is located on the right side of the base (201) and is used to hold the motor (404).

6. The concrete mixer for enhancing the performance of recycled aggregates according to claim 1, characterized in that: The material conveying device includes a side guard (301), a discharge plate (302), a screen (303), a screen fixing port (304), a baffle (305), and a baffle hinge shaft (306). The side guard (301) is located on both sides of the discharge plate (302). The discharge plate (302) is located below the cylinder (101). The screen (303) can be placed on the discharge plate (302) through the screen fixing port (304). The baffle (305) is located at the bottom edge of the screen (303). The baffle (305) is rotatably connected to the screen (303) through the baffle hinge shaft (306).

7. The concrete mixer for enhancing the performance of recycled aggregates according to claim 6, characterized in that: A baffle holder (308) is provided at the bottom of the unloading plate (302), and the baffle holder (308) is fixedly connected to the baffle (305) by a fixing rope (307).

8. The concrete mixer for enhancing the performance of recycled aggregates according to claim 6, characterized in that: The unloading plate (302) is inclinedly disposed below the cylinder (101) via the unloading plate support platform (205).

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