Columnar activated carbon charging mechanism

Abstract

A columnar activated carbon charging mechanism comprises an upper transition charging table, a charging table, a main bearing table, a container positioning block, a columnar activated carbon storage container, a driving traction ring, a driving threaded cylinder, a driven traction rod, a material distribution driving motor, a middle linkage sliding block and a driving traction rod. A bottom supporting column is arranged at the bottom of the main bearing table, and a supporting base is arranged at the bottom of the bottom supporting column; the middle of the bottom supporting column is provided with main driving threads, the driving threaded cylinder is in threaded connection with the main driving threads, the side face of the driving threaded cylinder is provided with a driving handle, the top of the driving threaded cylinder is provided with a traction ring connecting table, and the driving traction ring is rotationally connected with the traction ring connecting table. Side container placing tables are arranged on the side faces of the main bearing table, positioning block connecting grooves are formed in the side faces of the side container placing tables, and the positioning block connecting grooves are matched with the container positioning blocks.

Description

Technical Field

[0001] The utility model relates to the field of columnar activated carbon, in particular to a columnar activated carbon loading mechanism. Background Art

[0002] The existing patent (publication number: CN214452329U) proposes a columnar activated carbon loading mechanism, including a main body frame, a dividing plate and a clamping plate. A connecting column is arranged on the front side of the top of the main body frame, and six connecting rods are arranged around the circumferential outer wall of the connecting column. The outer ends of these six connecting rods are all provided with a supporting plate. A motor is arranged at the bottom of the dividing plate, and the top of the motor passes through the bottom of the dividing plate and is provided with a rotating roller. On the outer sides of the tops of the six connecting rods, there is a vertical rod, and the tops of the six vertical rods are all provided with a mounting plate. However, for this device, "first, six activated carbon containers are respectively placed into six placement grooves, so that six groups of clamping plates clamp the six activated carbon containers under the action of springs". Each set of clamping plate springs needs to be operated separately, and the operation is relatively cumbersome, affecting the clamping efficiency and processing efficiency. Summary of the Invention

[0003] In view of the above deficiencies of the prior art, the utility model provides a columnar activated carbon loading mechanism. By rotating the driving handle forward, the driving threaded cylinder drives the active traction ring to move downward. The downward movement of the active traction ring causes all the middle linkage sliders to move downward synchronously. When the middle linkage sliders move downward, all the driven traction rods pull all the container positioning blocks closer until the container positioning blocks are pressed against the side of the columnar activated carbon storage container, completing the centering positioning of the columnar activated carbon storage container. By controlling the driving handle, the synchronous clamping of all the columnar activated carbon storage containers can be completed. The clamping and fixing operation is more convenient, labor-saving, and the processing efficiency is higher.

[0004] The purpose of the utility model is achieved through the following technical solutions:

[0005] A columnar activated carbon loading mechanism, comprising an upper transition loading table, a loading table, a main bearing table, a container positioning block, a columnar activated carbon storage container, an active traction ring, a driving screw cylinder, a driven traction rod, a material distribution driving motor, a middle linkage slider, and an active traction rod. The bottom of the main bearing table is provided with a bottom support column, the bottom of the bottom support column is provided with a support base, and the middle of the bottom support column is provided with a main driving thread. The driving screw cylinder is threadedly connected to the main driving thread. The side of the driving screw cylinder is provided with a driving handle, and the top of the driving screw cylinder is provided with a traction ring connecting platform. The active traction ring is rotatably connected to the traction ring connecting platform. The side of the active traction ring is provided with a lower active rod connecting platform. The side of the main bearing table is provided with a side container placement table, and the side of the side container placement table is provided with a positioning block connecting groove, which is adapted to the container positioning block. The positioning block connecting groove is connected to the container positioning block, and the container positioning block slides inside the positioning block connecting groove. The middle of the container positioning block is provided with a positioning block installation groove, and the bottom of the positioning block connecting groove is provided with a positioning block installation platform, which is adapted to the positioning block installation groove. The positioning block installation platform is connected to the positioning block installation groove, and the positioning block installation groove slides outside the positioning block installation platform.

[0006] The columnar activated carbon storage container is placed inside the side container placement table, and the container positioning block is pressed against the side of the columnar activated carbon storage container. The bottom of the container positioning block is provided with a lower driven rod connecting platform. The bottom of the side container placement table is provided with a middle linkage block installation column, which is adapted to the middle linkage slider. The middle linkage block installation column is connected to the middle linkage slider, and the middle linkage slider slides outside the middle linkage block installation column. The top of the middle linkage slider is provided with a lower driven rod connecting platform, and the top of the driven traction rod is rotatably connected to the lower driven rod connecting platform.

[0007] The bottom of the driven traction rod is rotatably connected to the lower driven rod connecting platform. The bottom of the middle linkage slider is provided with an upper active rod connecting platform, the top of the active traction rod is rotatably connected to the upper active rod connecting platform, and the bottom of the active traction rod is rotatably connected to the lower active rod connecting platform. The top of the main bearing table is fixedly connected to the upper transition loading table. The bottom of the upper transition loading table is provided with a loading pipe, which corresponds to the position of the columnar activated carbon storage container. The inside of the upper transition loading table is provided with an upper transition loading groove.

[0008] Beneficial effects: 1. When this device of the present utility model performs the loading operation of columnar activated carbon, the columnar activated carbon storage container is placed inside the side container placement table. By rotating the driving handle in the forward direction, the driving screw cylinder drives the active traction ring to descend. The descent of the active traction ring drives all the middle linkage sliders to descend synchronously. When the middle linkage sliders descend, all the container positioning blocks are pulled closer through all the driven traction rods until the container positioning blocks are pressed against the side of the columnar activated carbon storage container, completing the centering positioning of the columnar activated carbon storage container. By controlling the driving handle, the synchronous clamping of all the columnar activated carbon storage containers can be completed. The clamping and fixing operation is more convenient, labor-saving, and the processing efficiency is higher.

[0009] 2. The side of the loading column of the present utility model is provided with a material distribution groove, so that after the columnar activated carbon falls from the loading platform into the interior of the loading column, it can fall into the interior of the upper transition loading groove through the material distribution groove. By driving the rotation of the loading platform by the material distribution driving motor, the centrifugal force can be used to accelerate the dropping of the columnar activated carbon, thereby ensuring the loading efficiency of this device.

[0010] 3. The end of the container positioning block of the present utility model is composed of a concave arc and two tangent arcs on both sides to form a contact surface, so that when the contact surface of the container positioning block presses against the side of the columnar activated carbon storage container, it has a large contact area, avoiding that the contact area between the container positioning block and the columnar activated carbon storage container is too small, resulting in excessive local pressure and damaging the columnar activated carbon storage container, and ensuring the stability when positioning the columnar activated carbon storage container.

[0011] 4. The side of the driving screw cylinder of the present utility model is provided with multiple groups of driving handles, enabling the operator to operate the corresponding driving handle at any position to drive the rotation of the driving screw cylinder, further increasing the convenience of the operation of clamping and positioning the columnar activated carbon storage container by this device. Description of the Drawings

[0012] Figure 1 is a schematic structural view of a columnar activated carbon loading mechanism according to the present utility model Figure 1 .

[0013] Figure 2 is a schematic structural view of a columnar activated carbon loading mechanism according to the present utility model Figure 2 .

[0014] Figure 3 is a side sectional view of a columnar activated carbon loading mechanism according to the present utility model.

[0015] Figure 4 is the Figure 3 partial enlarged view according to the present utility model.

[0016] Figure 5 is a schematic structural view of the main bearing platform according to the present utility model.

[0017] Figure 6 is a schematic structural view of the upper transition loading platform according to the present utility model.

[0018] Figure 7 is a schematic structural view of the container positioning block according to the present utility model. Detailed Description of the Preferred Embodiment

[0019] The present utility model will be further described in detail below with reference to the drawings and embodiments:

[0020] Embodiment 1:

[0021] A columnar activated carbon loading mechanism, including an upper transition loading table 1, a loading table 3, a main bearing table 6, a container positioning block 8, a columnar activated carbon storage container 9, a driving traction ring 12, a driving threaded cylinder 13, a driven traction rod 16, a material distribution driving motor 23, a middle linkage slider 25, and a driving traction rod 31. The bottom of the main bearing table 6 has a bottom support column 11, the bottom of the bottom support column 11 has a support base 15, and the middle of the bottom support column 11 has a main driving thread 32. The driving threaded cylinder 13 is threadedly connected to the main driving thread 32. The side of the driving threaded cylinder 13 has a driving handle 14, and there are multiple groups of driving handles 14 on the side of the driving threaded cylinder 13, enabling operators to operate the corresponding driving handle 14 at any position to drive the driving threaded cylinder 13 to rotate, further increasing the convenience of the clamping and positioning operation of the columnar activated carbon storage container 9 by this device. The top of the driving threaded cylinder 13 has a traction ring connection platform 34, and the driving traction ring 12 is rotatably connected to the traction ring connection platform 34. The side of the driving traction ring 12 has a lower driving rod connection platform 26. The side of the main bearing table 6 has a side container placement table 7, and the side of the side container placement table 7 has a positioning block connection groove 10, which is adapted to the container positioning block 8. The positioning block connection groove 10 is connected to the container positioning block 8, and the container positioning block 8 slides inside the positioning block connection groove 10. The end of the container positioning block 8 is composed of a concave arc and two tangent arcs on both sides to form a contact surface, so that when the contact surface of the container positioning block 8 presses against the side of the columnar activated carbon storage container 9, it has a large contact area, avoiding the contact area between the container positioning block 8 and the columnar activated carbon storage container 9 being too small, resulting in excessive local pressure and damaging the columnar activated carbon storage container 9, and ensuring the stability when positioning the columnar activated carbon storage container 9. The middle of the container positioning block 8 has a positioning block installation groove 29, and the bottom of the positioning block connection groove 10 has a positioning block installation platform 19, which is adapted to the positioning block installation groove 29. The positioning block installation platform 19 is connected to the positioning block installation groove 29, and the positioning block installation groove 29 slides outside the positioning block installation platform 19.

[0022] Embodiment 2:

[0023] The columnar activated carbon storage container 9 of the present utility model is placed inside the side container placement table 7. When loading the columnar activated carbon, the columnar activated carbon storage container 9 is placed inside the side container placement table 7. By rotating the driving handle 14 forward, the driving threaded cylinder 13 drives the active traction ring 12 to move downward. The downward movement of the active traction ring 12 drives all the middle linkage sliders 25 to move downward synchronously. When the middle linkage sliders 25 move downward, all the container positioning blocks 8 are pulled closer by all the driven traction rods 16 until the container positioning blocks 8 are pressed against the side of the columnar activated carbon storage container 9, completing the centering positioning of the columnar activated carbon storage container 9. By controlling the driving handle 14, the synchronous clamping of all the columnar activated carbon storage containers 9 can be completed. The clamping and fixing operation is more convenient, labor-saving, and has a higher processing efficiency. The container positioning block 8 is pressed against the side of the columnar activated carbon storage container 9. The bottom of the container positioning block 8 has an upper driven rod connection platform 18, and the bottom of the side container placement table 7 has a middle linkage block installation column 30. The middle linkage block installation column 30 is adapted to the middle linkage slider 25. The middle linkage block installation column 30 is connected to the middle linkage slider 25. The middle linkage slider 25 slides outside the middle linkage block installation column 30. The top of the middle linkage slider 25 has a lower driven rod connection platform 27, and the top of the driven traction rod 16 is rotatably connected to the upper driven rod connection platform 18.

[0024] Embodiment 3:

[0025] The bottom of the driven traction rod 16 of the present utility model is rotatably connected to the lower driven rod connection platform 27. The bottom of the middle linkage slider 25 has an upper driving rod connection platform 28. The top of the driving traction rod 31 is rotatably connected to the upper driving rod connection platform 28. The bottom of the driving traction rod 31 is rotatably connected to the lower driving rod connection platform 26. The top of the main bearing platform 6 is fixedly connected to the upper transition loading platform 1. The bottom of the upper transition loading platform 1 has a loading pipe 24, and the loading pipe 24 corresponds to the position of the columnar activated carbon storage container 9. The inside of the upper transition loading platform 1 has an upper transition loading groove 2.

[0026] Embodiment 4:

[0027] The top of the main bearing platform 6 of the present utility model has a motor installation groove 22. The material distribution driving motor 23 is inserted into the motor installation groove 22 and fixed. The bottom of the loading platform 3 has a loading column 4. The bottom of the loading column 4 has a material distribution seat 21. The middle of the upper transition loading groove 2 has a material distribution seat connection groove 33. The material distribution seat 21 is rotatably connected to the motor installation groove 22 and the material distribution seat connection groove 33 at the same time. The transmission shaft of the material distribution driving motor 23 is fixedly connected to the material distribution seat 21.

[0028] Embodiment 5:

[0029] On the side of the loading column 4 of the present utility model, there are a material distribution groove 20 and a side pushing plate 5. A material distribution groove 20 is arranged on the side of the loading column 4, so that after the columnar activated carbon falls from the loading table 3 into the interior of the loading column 4, it can fall into the upper transition loading groove 2 through the material distribution groove 20. By driving the rotation of the loading table 3 with the material distribution driving motor 23, the centrifugal force can be used to accelerate the dropping of the columnar activated carbon, thereby ensuring the loading efficiency of this device. The material distribution groove 20 and the side pushing plate 5 are arranged evenly and staggeredly around the loading column 4. The side pushing plate 5 is adapted to the upper transition loading groove 2, and the side pushing plate 5 is connected to the upper transition loading groove 2 and rotates inside the upper transition loading groove 2.

[0030] Embodiment 6:

[0031] Installation steps of the present utility model: Insert the material distribution driving motor 23 into the motor installation groove 22 of the main bearing platform 6 for fixation. Fix the top of the main bearing platform 6 to the upper transition loading platform 1. Rotationally connect the material distribution seat 21 of the loading table 3 to the motor installation groove 22 and the material distribution seat connection groove 33 of the upper transition loading platform 1 at the same time, so that the side pushing plate 5 of the loading table 3 rotates inside the upper transition loading groove 2 of the upper transition loading platform 1. Insert the container positioning block 8 into the positioning block connection groove 10 of the main bearing platform 6, so that the positioning block installation groove 29 of the container positioning block 8 is sleeved outside the positioning block installation platform 19 of the main bearing platform 6. Sleeve the middle linkage slider 25 outside the middle linkage block installation column 30 of the main bearing platform 6. Rotationally connect the top of the driven traction rod 16 to the upper driven rod connection platform 18 of the container positioning block 8, and the bottom of the driven traction rod 16 to the lower driven rod connection platform 27 of the middle linkage slider 25. Threadedly connect the driving threaded cylinder 13 to the main driving thread 32 of the main bearing platform 6. Sleeve the active traction ring 12 outside the traction ring connection platform 34 of the driving threaded cylinder 13. Rotationally connect the bottom of the active traction rod 31 to the lower active rod connection platform 26 of the active traction ring 12, and the top of the active traction rod 31 to the upper active rod connection platform 28 of the middle linkage slider 25.

[0032] The above are only the preferred embodiments of the present utility model and are not used to limit the present utility model. It should be pointed out that for those of ordinary skill in the art of this technology, without departing from the technical principle of the present utility model, several improvements and modifications can still be made, and these improvements and modifications should also be regarded as the protection scope of the present utility model.

Claims

1. A columnar activated carbon loading mechanism, characterized in that The invention comprises an upper transition loading platform (1), a loading platform (3), a main bearing platform (6), a container positioning block (8), a columnar activated carbon storage container (9), an active traction ring (12), a driving threaded barrel (13), a driven traction rod (16), a material distribution driving motor (23), a middle linkage slider (25), and an active traction rod (31). The main bearing platform (6) has a bottom support column (11) at the bottom, a support base (15) at the bottom of the bottom support column (11), a main driving thread (32) at the middle of the bottom support column (11), the driving threaded barrel (13) is threadedly connected to the main driving thread (32), a driving handle (14) is provided on the side of the driving threaded barrel (13), a traction ring connecting platform (34) is provided on the top of the driving threaded barrel (13), and the active traction ring (12) and the traction ring connecting platform (34) are connected. ) is rotatably connected, the side of the active traction ring (12) is provided with a lower active rod connecting platform (26), the side of the main bearing platform (6) is provided with a side container placement platform (7), the side of the side container placement platform (7) is provided with a positioning block connecting groove (10), the positioning block connecting groove (10) is adapted to the container positioning block (8), the positioning block connecting groove (10) is connected to the container positioning block (8), the container positioning block (8) slides inside the positioning block connecting groove (10), the middle of the container positioning block (8) is provided with a positioning block mounting groove (29), the bottom of the positioning block connecting groove (10) is provided with a positioning block mounting platform (19), the positioning block mounting platform (19) is adapted to the positioning block mounting groove (29), the positioning block mounting platform (19) is connected to the positioning block mounting groove (29), and the positioning block mounting groove (29) slides outside the positioning block mounting platform (19).

2. A columnar activated carbon loading mechanism according to claim 1, characterized in that The columnar activated carbon storage container (9) is placed inside the side container placement platform (7), the container positioning block (8) is pressed against the side of the columnar activated carbon storage container (9), the bottom of the container positioning block (8) is provided with an upper driven rod connection platform (18), the bottom of the side container placement platform (7) is provided with a middle linkage block mounting column (30), the middle linkage block mounting column (30) is adapted to the middle linkage slider (25), the middle linkage block mounting column (30) is connected to the middle linkage slider (25), the middle linkage slider (25) slides outside the middle linkage block mounting column (30), the top of the middle linkage slider (25) is provided with a lower driven rod connection platform (27), and the top of the driven traction rod (16) is rotatably connected to the upper driven rod connection platform (18).

3. A columnar activated carbon loading mechanism according to claim 2, characterized in that The bottom of the driven traction rod (16) is rotatably connected to the lower driven rod connecting platform (27), the bottom of the middle linkage slider (25) is provided with an upper active rod connecting platform (28), the top of the active traction rod (31) is rotatably connected to the upper active rod connecting platform (28), the bottom of the active traction rod (31) is rotatably connected to the lower active rod connecting platform (26), the top of the main bearing platform (6) is fixedly connected to the upper transition loading platform (1), the bottom of the upper transition loading platform (1) is provided with a loading pipe (24), the loading pipe (24) corresponds to the position of the columnar activated carbon storage container (9), and the upper transition loading platform (1) has an upper transition loading trough (2) inside.

4. A columnar activated carbon loading mechanism according to claim 3, characterized in that The main bearing platform (6) has a motor mounting groove (22) at the top, and the material distribution drive motor (23) is inserted into the motor mounting groove (22) and fixed therein; the loading platform (3) has a loading column (4) at the bottom, and the loading column (4) has a material distribution seat (21) at the bottom; the upper transition loading groove (2) has a material distribution seat connecting groove (33) in the middle; the material distribution seat (21) is rotatably connected to the motor mounting groove (22) and the material distribution seat connecting groove (33) at the same time; and the transmission shaft of the material distribution drive motor (23) is fixedly connected to the material distribution seat (21).

5. A columnar activated carbon loading mechanism according to claim 4, characterized in that The side of the loading column (4) is provided with a material distribution groove (20) and a side push plate (5), the material distribution groove (20) and the side push plate (5) are evenly arranged in an alternating manner around the loading column (4), the side push plate (5) is adapted to the upper transition loading groove (2), the side push plate (5) is connected to the upper transition loading groove (2), and the side push plate (5) rotates inside the upper transition loading groove (2).

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