Concrete vibration table with anti-toppling structure

Abstract

The utility model relates to the technical field of geological survey and detection, in particular to a concrete vibrating table with an anti-toppling structure, which comprises a vibrating table component, a first fixing component is mounted on one side of the vibrating table component, and a second fixing component and a cleaning component are sequentially mounted at the front end of the vibrating table component from bottom to top. The first fixing assembly comprises a first shell, a first sliding rod is installed on the inner wall of the first shell, a first motor is installed at the bottom of the first shell, a first gear is installed at the output end of the first motor, and a first cog belt is installed on the outer wall of the first gear in an engaged mode. According to the improved concrete vibration table, when the concrete vibration table is used, concrete on the vibration table can be clamped, the situation that when the concrete is tested, the concrete topples over, and the detection effect is affected can be prevented, meanwhile, after the concrete vibration table is used, the vibration table is automatically cleaned, and the use convenience of the concrete vibration table is improved.

Description

Technical Field

[0001] The utility model relates to the technical field of geological exploration and detection, in particular to a concrete vibrating table with an anti-tipping structure. Background Technique

[0002] Geological exploration and detection refer to the process of investigating and analyzing geological landforms, underground rock structures, groundwater, mineral resources, etc. to obtain geological information and evaluate geological conditions. This process is to help understand the internal structure of the earth, the distribution of natural resources, the risk of geological disasters, etc., and provide a scientific basis for engineering construction, natural resource development, environmental protection, etc.

[0003] The concrete vibrating table is suitable for laboratories and on-site construction sites to form test pieces and vibrate and compact various concrete components such as slab columns and beams in precast components. When conducting geological exploration and detection, sometimes it is necessary to use the concrete vibrating table to measure the strength and seismic resistance of concrete.

[0004] The inventor found the following problems in the process of realizing the utility model: 1. When some existing ordinary concrete vibrating tables are in use, the concrete is generally directly placed on the vibrating table. During the detection, the concrete may tip over, which may affect the detection work; 2. After some existing ordinary concrete vibrating tables are used, there may be concrete debris left on the vibrating table. Generally, it is necessary to manually clean the concrete debris on the vibrating table, which may be time-consuming and laborious. Content of the Utility Model

[0005] The purpose of the utility model is to provide a concrete vibrating table with an anti-tipping structure to solve the problems that some existing ordinary concrete vibrating tables cannot fix the concrete and manually clean the concrete debris on the vibrating table, which may be time-consuming and laborious in the above background technique. To achieve the above purpose, the utility model provides the following technical solution: A concrete vibrating table with an anti-tipping structure, including a vibrating table assembly, a first fixing assembly is installed on one side of the vibrating table assembly, and a second fixing assembly and a cleaning assembly are sequentially installed on the front end of the vibrating table assembly from bottom to top.

[0006] The first fixing assembly includes a first housing, a first sliding rod is installed on the inner wall of the first housing, a first motor is installed at the bottom of the first housing, a first gear is installed at the output end of the first motor, a first toothed belt is installed on the outer wall of the first gear in a meshing manner, a second gear is installed on the inner wall of the first toothed belt in a meshing manner, a first bidirectional screw is installed through the rear end of the second gear, a first L-shaped slider is threadedly installed on the outer wall of the first bidirectional screw, and a first clamping plate is installed on one side of the first L-shaped slider.

[0007] The second fixing component includes a second housing. A second sliding rod is installed on the inner wall of the second housing. A second motor is installed at the bottom of the second housing. The output end of the second motor is installed with a third gear. A second toothed belt is installed on the outer wall of the third gear in a meshing manner. A fourth gear is installed on the inner wall of the second toothed belt in a meshing manner. A second bidirectional screw rod penetrates through one side of the fourth gear. Second L-shaped sliders are installed on the outer wall of the second bidirectional screw rod in a threaded manner. A second clamping plate is installed at the rear end of the second L-shaped slider.

[0008] The cleaning component includes a third housing. A third sliding rod is installed on the inner wall of the third housing. A third motor is installed on one side of the third housing. The output end of the third motor is installed with a threaded rod. A sliding block is installed on the outer wall of the threaded rod in a threaded manner. A mounting plate is installed on one side of the sliding block. A hydraulic push rod is installed on the top of the mounting plate. A brush plate is installed at the bottom of the hydraulic push rod. A sliding rod is installed on the top of the brush plate.

[0009] Further preferably, the vibrating table component includes a bottom plate. A spring is installed on the top of the bottom plate. A connecting block is installed on the top of the spring. A vibrating table is installed on the top of the connecting block. Discharge grooves are formed on both sides of the bottom of the vibrating table. Activity grooves are formed around the outer wall of the vibrating table. A vibrating motor is installed at the bottom of the vibrating table. A first housing is installed on one side of the vibrating table. Second and third housings are sequentially installed from bottom to top at the front end of the vibrating table.

[0010] Further preferably, a first bidirectional screw rod penetrates through and is rotatably installed at the front end of the first housing. The first L-shaped slider and the first sliding rod form a sliding mechanism. The first bidirectional screw rod and the first L-shaped slider form a screw drive mechanism. The first L-shaped slider and the first clamping plate are symmetrically distributed with respect to the vertical center line of the first housing.

[0011] Further preferably, a second bidirectional screw rod penetrates through and is rotatably installed on one side of the second housing. The second L-shaped slider and the second sliding rod form a sliding mechanism. The second bidirectional screw rod and the second L-shaped slider form a screw drive mechanism. The second L-shaped slider and the second clamping plate are symmetrically distributed with respect to the vertical center line of the second housing.

[0012] Further preferably, a moving groove with an internal dimension structure consistent with the external dimension structure of the first clamping plate is formed at the front end of the second clamping plate. The first clamping plate and the second clamping plate form a sliding mechanism through the moving groove at the front end of the second clamping plate.

[0013] Further preferably, the sliding block and the third sliding rod form a sliding mechanism, and the sliding block and the third motor form a screw drive mechanism through a threaded rod. Moreover, the third housing, the third sliding rod, the third motor, the threaded rod, and the sliding block are symmetrically distributed with respect to the vertical center line of the mounting plate. At the same time, the sliding rod and the mounting plate form a sliding mechanism.

[0014] Compared with the prior art, the beneficial effects of the present utility model are as follows:

[0015] In the present utility model, through the first fixing component and the second fixing component, when the first motor and the second motor are started, the first motor drives the second gear and the first bidirectional screw to rotate through the first gear and the first toothed belt, adjusting the distance between the first L-shaped slider and the first clamping plate. The second motor drives the fourth gear and the second bidirectional screw to rotate through the third gear and the second toothed belt, adjusting the distance between the two second L-shaped sliders and the second clamping plate, so as to stably clamp the concrete. When using the concrete vibrating table, it can prevent the concrete from tipping over and affecting the detection effect.

[0016] In the present utility model, through the cleaning component, when the third motor and the hydraulic push rod are started, the third motor drives the sliding block, the mounting plate, the hydraulic push rod, the brush plate, and the sliding rod to move left and right through the threaded rod. The hydraulic push rod drives the brush plate to move downward and contact the bottom of the inner wall of the vibrating table, cleaning the vibrating table. The cleaned concrete debris and the like are discharged through the bottom discharge groove of the vibrating table and enter the waste collection box at the bottom of the vibrating table, which can automatically clean the vibrating table and improve the convenience of using the concrete vibrating table. BRIEF DESCRIPTION OF THE DRAWINGS

[0017] Figure 1 is the front view structural schematic diagram of the present utility model;

[0018] Figure 2 is the structural schematic diagram of the vibrating table assembly of the present utility model;

[0019] Figure 3 is the bottom view structural schematic diagram of the vibrating table assembly of the present utility model;

[0020] Figure 4 is the structural schematic diagram of the first fixing component of the present utility model;

[0021] Figure 5 In the present utility model Figure 4 is the enlarged structural schematic diagram of part A therein;

[0022] Figure 6 is the structural schematic diagram of the second fixing component of the present utility model;

[0023] Figure 7 In the present utility model Figure 6 is the enlarged structural schematic diagram of part B therein;

[0024] Figure 8 This is a schematic structural diagram of the cleaning component of the present utility model.

[0025] In the figure: 1. Vibration table assembly; 101. Bottom plate; 102. Spring; 103. Connecting block; 104. Vibration table; 105. Discharge chute; 106. Movable groove; 107. Vibration motor; 2. First fixing component; 201. First housing; 202. First sliding rod; 203. First motor; 204. First gear; 205. First toothed belt; 206. Second gear; 207. First bidirectional screw; 208. First L-shaped slider; 209. First clamping plate; 3. Second fixing component; 301. Second housing; 302. Second sliding rod; 303. Second motor; 304. Third gear; 305. Second toothed belt; 306. Fourth gear; 307. Second bidirectional screw; 308. Second L-shaped slider; 309. Second clamping plate; 4. Cleaning component; 401. Third housing; 402. Third sliding rod; 403. Third motor; 404. Threaded rod; 405. Sliding block; 406. Mounting plate; 407. Hydraulic push rod; 408. Brush plate; 409. Sliding rod. Specific embodiments

[0026] Next, the technical solutions in the embodiments of the present utility model will be clearly and completely described in conjunction with the accompanying drawings in the embodiments of the present utility model. Obviously, the described embodiments are only a part of the embodiments of the present utility model, rather than all the embodiments. Based on the embodiments of the present utility model, all other embodiments obtained by those of ordinary skill in the art without creative work fall within the protection scope of the present utility model.

[0027] Please refer to Figures 1 to 8 , the present utility model provides a technical solution: a concrete vibrating table with an anti-tipping structure, including a vibrating table assembly 1, a first fixing component 2 is installed on one side of the vibrating table assembly 1, and a second fixing component 3 and a cleaning component 4 are sequentially installed from bottom to top at the front end of the vibrating table assembly 1.

[0028] The first fixing component 2 includes a first housing 201, a first sliding rod 202 is installed on the inner wall of the first housing 201, a first motor 203 is installed at the bottom of the first housing 201, a first gear 204 is installed at the output end of the first motor 203, a first toothed belt 205 is installed on the outer wall of the first gear 204 in a meshing manner, a second gear 206 is installed on the inner wall of the first toothed belt 205 in a meshing manner, a first bidirectional screw 207 is installed through the rear end of the second gear 206, a first L-shaped slider 208 is installed on the outer wall of the first bidirectional screw 207 in a threaded manner, and a first clamping plate 209 is installed on one side of the first L-shaped slider 208.

[0029] The second fixing component 3 includes a second housing 301. A second sliding rod 302 is installed on the inner wall of the second housing 301. A second motor 303 is installed at the bottom of the second housing 301. A third gear 304 is installed at the output end of the second motor 303. A second toothed belt 305 is meshed and installed on the outer wall of the third gear 304. A fourth gear 306 is meshed and installed on the inner wall of the second toothed belt 305. A second bidirectional screw 307 is installed through one side of the fourth gear 306. A second L-shaped slider 308 is threadedly installed on the outer wall of the second bidirectional screw 307. A second clamping plate 309 is installed at the rear end of the second L-shaped slider 308.

[0030] The cleaning component 4 includes a third housing 401. A third sliding rod 402 is installed on the inner wall of the third housing 401. A third motor 403 is installed on one side of the third housing 401. A threaded rod 404 is installed at the output end of the third motor 403. A sliding block 405 is threadedly installed on the outer wall of the threaded rod 404. A mounting plate 406 is installed on one side of the sliding block 405. A hydraulic push rod 407 is installed on the top of the mounting plate 406. A brush plate 408 is installed at the bottom of the hydraulic push rod 407. A sliding rod 409 is installed on the top of the brush plate 408.

[0031] In this embodiment, as Figure 1 , Figure 2 , Figure 3 , Figure 4 , Figure 5 , Figure 6 , Figure 7 and Figure 8 shown, the shaking table assembly 1 includes a bottom plate 101. Springs 102 are installed on the top of the bottom plate 101. A connecting block 103 is installed on the top of the springs 102. A shaking table 104 is installed on the top of the connecting block 103. Discharge grooves 105 are formed on both sides of the bottom of the shaking table 104. Activity grooves 106 are formed around the outer wall of the shaking table 104. A vibration motor 107 is installed at the bottom of the shaking table 104. And a first housing 201 is installed on one side of the shaking table 104. And a second housing 301 and a third housing 401 are sequentially installed from bottom to top at the front end of the shaking table 104; when the vibration motor 107 is started, it can drive the shaking table 104 to vibrate to simulate an earthquake, and the four springs 102 at the bottom of the shaking table 104 can play a buffering role.

[0032] In this embodiment, as Figure 4 and Figure 5As shown in the figure, a first bidirectional screw 207 is rotatably installed through the front end of a first housing 201. A first L-shaped slider 208 and a first sliding rod 202 form a sliding mechanism, and the first bidirectional screw 207 and the first L-shaped slider 208 form a screw drive mechanism. At the same time, the first L-shaped slider 208 and a first clamping plate 209 are symmetrically distributed with respect to the vertical center line of the first housing 201. The first housing 201, the first sliding rod 202, the first motor 203, the first gear 204, the first toothed belt 205, the second gear 206, the first bidirectional screw 207, and the first L-shaped slider 208 are symmetrically distributed with respect to the vertical center line of the first clamping plate 209. When the first motor 203 is started, it drives the first gear 204 to rotate, and at the same time drives the second gear 206 to rotate through the first toothed belt 205. The rotation of the second gear 206 drives the first bidirectional screw 207 to rotate, which can drive the first L-shaped slider 208 to move back and forth, adjust the distance between the two first L-shaped sliders 208, and thus can adjust the distance between the two first clamping plates 209 to clamp the concrete, which can prevent the concrete from tipping over during the detection of the concrete and affecting the detection work.

[0033] In this embodiment, as Figure 6 and Figure 7 shown, a second bidirectional screw 307 is rotatably installed through one side of a second housing 301. A second L-shaped slider 308 and a second sliding rod 302 form a sliding mechanism, and the second bidirectional screw 307 and the second L-shaped slider 308 form a screw drive mechanism. At the same time, the second L-shaped slider 308 and a second clamping plate 309 are symmetrically distributed with respect to the vertical center line of the second housing 301. The second housing 301, the second sliding rod 302, the second motor 303, the third gear 304, the second toothed belt 305, the fourth gear 306, the second bidirectional screw 307, and the second L-shaped slider 308 are symmetrically distributed with respect to the vertical center line of the second clamping plate 309. When the second motor 303 is started, it drives the third gear 304 to rotate, and at the same time drives the fourth gear 306 to rotate through the second toothed belt 305. The rotation of the fourth gear 306 drives the second bidirectional screw 307 to rotate, which can drive the second L-shaped slider 308 to move left and right, adjust the distance between the two second L-shaped sliders 308, and thus can adjust the distance between the two second clamping plates 309 to clamp the concrete, which can prevent the concrete from tipping over during the detection of the concrete and affecting the detection work.

[0034] In this embodiment, as Figure 4 、 Figure 5 、 Figure 6 and Figure 7As shown in the figure, a moving groove with an internal dimension structure consistent with the external dimension structure of the first clamping plate 209 is provided at the front end of the second clamping plate 309, and the first clamping plate 209 and the second clamping plate 309 form a sliding mechanism through the moving groove at the front end of the second clamping plate 309; when the first motors 203 of the first fixing assembly 2 and the second fixing assembly 3 are started, the two first clamping plates 209 and the two second clamping plates 309 can be driven to move, and the two first clamping plates 209 and the two second clamping plates 309 will not interfere with each other during movement, and the concrete can be stably clamped.

[0035] In this embodiment, as Figure 8 shown, the sliding block 405 and the third sliding rod 402 form a sliding mechanism, and the sliding block 405 and the third motor 403 form a screw drive mechanism through the threaded rod 404, and the third housing 401, the third sliding rod 402, the third motor 403, the threaded rod 404 and the sliding block 405 are symmetrically distributed about the vertical center line of the mounting plate 406. At the same time, the sliding rod 409 and the mounting plate 406 form a sliding mechanism; when the third motor 403 is started, the sliding block 405 is driven to move left and right through the threaded rod 404, and at the same time, the mounting plate 406, the hydraulic push rod 407, the brush plate 408 and the sliding rod 409 are driven to move left and right. When the hydraulic push rod 407 is started, the brush plate 408 is driven to move downward to contact the bottom of the inner wall of the vibrating table 104, and the vibrating table 104 is automatically cleaned, improving the convenience of using the concrete vibrating table.

[0036] The usage method and advantages of the present utility model: For the concrete vibrating table with an anti-tipping structure, during use, the working process is as follows:

[0037] As Figure 1 、 Figure 2 、 Figure 3 、 Figure 4 、 Figure 6 and Figure 8As shown in the figure, first place the concrete to be tested on the vibrating table 104. Then start the first motor 203 and the second motor 303. The first motor 203 drives the second gear 206 and the first bidirectional screw 207 to rotate through the first gear 204 and the first toothed belt 205, adjusting the distance between the first L-shaped slider 208 and the first clamping plate 209 to clamp the concrete. The second motor 303 drives the fourth gear 306 and the second bidirectional screw 307 to rotate through the third gear 304 and the second toothed belt 305, adjusting the distance between the two second L-shaped sliders 308 and the second clamping plate 309 to clamp the concrete. Then start the vibration motor 107 to drive the vibrating table 104 to vibrate for testing. When the test is over and the large concrete blocks on the vibrating table 104 are cleaned up, start the first motor 203 and the second motor 303, and the first clamping plate 209 and the second clamping plate 309 return to their original positions. Then start the third motor 403 and the hydraulic push rod 407. The hydraulic push rod 407 drives the brush plate 408 to move downward and contact the bottom inner wall of the vibrating table 104. The third motor 403 drives the sliding block 405, the mounting plate 406, the hydraulic push rod 407, the brush plate 408 and the sliding rod 409 to move left and right, so as to clean the vibrating table 104. The cleaned concrete debris and the like fall into the waste collection box at the bottom of the vibrating table 104 through the bottom discharge chute 105 of the vibrating table 104.

[0038] The above shows and describes the basic principles, main features and advantages of the present invention. Technical staff in this industry should understand that the present invention is not limited by the above embodiments. The above embodiments and the descriptions in the specification are only preferred examples of the present invention and are not used to limit the present invention. Without departing from the spirit and scope of the present invention, the present invention will have various changes and improvements, and these changes and improvements all fall within the scope of the present invention claimed. The scope of protection claimed by the present invention is defined by the appended claims and their equivalents.

Claims

1. Concrete vibrating table with anti-tipping structure, comprising a vibrating table assembly (1), characterized in that: On one side of the vibration table assembly (1), a first fixing component (2) is installed. From bottom to top, a second fixing component (3) and a cleaning component (4) are successively installed at the front end of the vibration table assembly (1). The first fixing component (2) includes a first housing (201). A first sliding rod (202) is installed on the inner wall of the first housing (201). A first motor (203) is installed at the bottom of the first housing (201). A first gear (204) is installed at the output end of the first motor (203). A first toothed belt (205) is meshed and installed on the outer wall of the first gear (204). A second gear (206) is meshed and installed on the inner wall of the first toothed belt (205). A first bidirectional screw (207) is installed through the rear end of the second gear (206). A first L-shaped slider (208) is threadedly installed on the outer wall of the first bidirectional screw (207). A first clamping plate (209) is installed on one side of the first L-shaped slider (208). The second fixing component (3) includes a second housing (301). A second sliding rod (302) is installed on the inner wall of the second housing (301). A second motor (303) is installed at the bottom of the second housing (301). A third gear (304) is installed at the output end of the second motor (303). A second toothed belt (305) is meshed and installed on the outer wall of the third gear (304). A fourth gear (306) is meshed and installed on the inner wall of the second toothed belt (305). A second bidirectional screw (307) is installed through one side of the fourth gear (306). A second L-shaped slider (308) is threadedly installed on the outer wall of the second bidirectional screw (307). A second clamping plate (309) is installed at the rear end of the second L-shaped slider (308). The cleaning component (4) includes a third housing (401). A third sliding rod (402) is installed on the inner wall of the third housing (401). A third motor (403) is installed on one side of the third housing (401). A threaded rod (404) is installed at the output end of the third motor (403). A sliding block (405) is threadedly installed on the outer wall of the threaded rod (404). An installation plate (406) is installed on one side of the sliding block (405). A hydraulic push rod (407) is installed at the top of the installation plate (406). A brush plate (408) is installed at the bottom of the hydraulic push rod (407). A sliding rod (409) is installed at the top of the brush plate (408).

2. The concrete vibrating table with an anti-tipping structure according to claim 1, characterized in that: The vibration table assembly (1) includes a bottom plate (101). A spring (102) is installed on the top of the bottom plate (101). A connecting block (103) is installed on the top of the spring (102). A vibration table (104) is installed on the top of the connecting block (103). Discharge grooves (105) are formed on both sides of the bottom of the vibration table (104). Activity grooves (106) are formed around the outer wall of the vibration table (104). A vibration motor (107) is installed on the bottom of the vibration table (104). A first housing (201) is installed on one side of the vibration table (104). And a second housing (301) and a third housing (401) are sequentially installed from bottom to top at the front end of the vibration table (104).

3. The concrete vibrating table with an anti-tipping structure according to claim 1, wherein: A first bidirectional screw (207) is rotatably installed through the front end of the first housing (201). The first L-shaped slider (208) and the first slide bar (202) form a sliding mechanism. The first bidirectional screw (207) and the first L-shaped slider (208) form a screw drive mechanism. At the same time, the first L-shaped slider (208) and the first clamping plate (209) are symmetrically distributed about the vertical center line of the first housing (201).

4. The concrete vibrator with an anti-tipping structure according to claim 1, wherein: A second bidirectional screw (307) is rotatably installed through one side of the second housing (301). The second L-shaped slider (308) and the second slide bar (302) form a sliding mechanism. The second bidirectional screw (307) and the second L-shaped slider (308) form a screw drive mechanism. At the same time, the second L-shaped slider (308) and the second clamping plate (309) are symmetrically distributed about the vertical center line of the second housing (301).

5. The concrete vibrating table with an anti-tipping structure according to claim 1, wherein: A moving groove with an internal dimension structure consistent with the external dimension structure of the first clamping plate (209) is formed at the front end of the second clamping plate (309). The first clamping plate (209) forms a sliding mechanism with the second clamping plate (309) through the moving groove at the front end of the second clamping plate (309).

6. The concrete vibrating table with an anti-tipping structure according to claim 1, wherein: The sliding block (405) and the third slide bar (402) form a sliding mechanism. The sliding block (405) and the third motor (403) form a screw drive mechanism through the threaded rod (404). The third housing (401), the third slide bar (402), the third motor (403), the threaded rod (404), and the sliding block (405) are symmetrically distributed about the vertical center line of the mounting plate (406). At the same time, the sliding rod (409) and the mounting plate (406) form a sliding mechanism.

Images