Anode carbon block size detection equipment

Abstract

The utility model discloses anode carbon block size detection equipment, and mainly relates to the field of anode carbon block size detection equipment. Comprising a volume size detection mechanism, a groove size detection mechanism and a size detection platform, the volume size detection mechanism and the groove size detection mechanism are arranged at the position of the size detection platform, and the size detection platform is arranged in cooperation with the progressive conveying mechanism. The detection device has the beneficial effects that the volume size of the anode carbon block and the size of the arranged groove can be detected, so that whether the size of the produced anode carbon block meets the production requirement or not is judged, and the produced anode carbon block can effectively act on the anode end position of an electrolytic tank.

Description

Technical Field

[0001] The utility model relates to the field of anode carbon block size detection equipment, in particular to anode carbon block size detection equipment. Background Art

[0002] Because the anode carbon block needs to be placed in the electrolytic cell and used as a section of the electrode in the electrolytic cell when it is used later, the size standard of the anode carbon block directly affects the anode terminal position that can be effectively connected to the electrolytic cell, so that it can be effectively used as the anode of the electrolytic cell. At the same time, because the anode carbon block needs to be effectively connected to the anode position of the electrolytic cell, it is necessary to set a groove on the anode carbon block to achieve effective connection between the anode carbon block and the anode terminal of the electrolytic cell. Therefore, the groove setting on the anode carbon block needs to meet the production requirements of the manufacturer to ensure that the anode terminal rod in the electrolytic cell can be inserted into the groove of the anode carbon block with the size matching. For the anode carbon block during roasting, in order to avoid the expansion and deformation of the groove due to heat during roasting, the filler will be filled inside it after roasting to avoid the expansion and deformation of the groove due to heat. However, after the filling material in the groove is removed after roasting, the specific size of the groove still needs to be detected to avoid it from being effectively installed at the anode position of the electrolytic cell.

[0003] Therefore, an anode carbon block size detection device can detect the volume size of the anode carbon block and the size of the groove, so as to determine whether the size of the produced anode carbon block meets the production requirements, and then ensure that the produced anode carbon block can effectively act on the anode end position of the electrolytic cell. Utility Model Content

[0004] The utility model aims to provide an anode carbon block size detection device, which can perform size detection operations on the anode carbon blocks, thereby ensuring that the produced anode carbon blocks meet production requirements so as to be effectively used as the anode end of the electrolytic cell.

[0005] In order to achieve the above purpose, the utility model is implemented through the following technical solutions:

[0006] An anode carbon block size detection device comprises a volume size detection mechanism, a groove size detection mechanism, and a size detection platform, wherein the volume size detection mechanism and the groove size detection mechanism are arranged at the position of the size detection platform, and the size detection platform is arranged in conjunction with the progressive conveying mechanism;

[0007] The volume size detection mechanism includes a contact detection plate and a telescopic control member, wherein the telescopic control member is connected to the contact detection plate to drive the contact detection plate to move up and down; the groove size detection mechanism includes a telescopic connecting member and a detection terminal, wherein the telescopic connecting member is connected to the detection terminal, and the position of the detection terminal is controlled by the telescopic connecting member.

[0008] The contact detection plate comprises a connection base and a pressure sensor. A plurality of the pressure sensors are arranged on the connection base at equal intervals, and the plurality of the pressure sensors are controlled by a connected control system.

[0009] The detection end surface of the pressure sensor is covered with a compression gasket, and the compression gaskets on adjacent pressure sensors cooperate with each other.

[0010] The detection end head comprises a butt-joint end head, the size of which matches the size of the groove of the anode carbon block; a pressure detection component is provided on the outer side of the butt-joint end head.

[0011] The pressure detection component includes a pressure sensor and a universal ball bearing. The pressure sensor and the universal ball bearing are connected via an elastic component. A detection hole is provided on the docking end surface of the docking end, and the universal ball bearing is arranged in cooperation with the detection hole.

[0012] A plurality of pressure detection components are arranged on the detection end surface of the butt end in a surrounding manner.

[0013] Compared with the prior art, the beneficial effects of the present invention are:

[0014] When setting up the device, the size detection of the end face of the anode carbon block is realized by setting up the contact detection plate and the telescopic control member. When setting up, the pressure sensor is set on the contact detection plate, and the pressure sensor at different positions is contacted with the anode carbon block, and the specific size value of the anode carbon block is obtained by judging the quantity information of the contact between the pressure sensor and the anode carbon block, thereby quickly realizing the volume size detection operation of the anode carbon block.

[0015] When the device is set up, the telescopic connection piece and the detection end are set up. When the device is set up, the detection end is made to correspond to the groove of the anode carbon block, and a pressure detection piece is set on the detection end, so as to detect the internal size of the groove of the anode carbon block. The telescopic connection piece can realize the upward and downward telescopic movement of the detection end, so as to effectively match and set the detection end to the inside of the groove of the anode carbon block, so as to effectively realize the operation of detecting the size of the groove of the anode carbon block. BRIEF DESCRIPTION OF THE DRAWINGS

[0016] AttachedFigure 1 It is a schematic diagram of the structure of the utility model.

[0017] Attached Figure 2 It is a structural schematic diagram of the volume size detection mechanism of the utility model.

[0018] Attached Figure 3 It is a partial structural schematic diagram of the volume size detection mechanism of the utility model.

[0019] Attached Figure 4 It is a structural schematic diagram of a groove size detection mechanism of the utility model.

[0020] Attached Figure 5 It is a cross-sectional view of the groove size detection mechanism of the utility model.

[0021] Numbers shown in the accompanying drawings:

[0022] 1. Contact detection plate; 2. Telescopic control part; 3. Telescopic connecting part; 4. Detection terminal; 5. Connection base; 6. Pressure sensor; 7. Extrusion gasket; 8. Docking terminal; 9. Pressure sensor; 10. Universal ball bearing; 11. Elastic part. DETAILED DESCRIPTION

[0023] The present invention is further described below in conjunction with specific embodiments. It should be understood that these embodiments are only used to illustrate the present invention and are not used to limit the scope of the present invention. In addition, it should be understood that after reading the content taught by the present invention, those skilled in the art can make various changes or modifications to the present invention, and these equivalent forms also fall within the scope defined by the present application.

[0024] For the size detection mechanism, it is necessary to detect the end face position of the anode carbon block, mainly the length and width of the anode carbon block, so as to determine whether the size of the anode carbon block meets the setting requirements. Because the anode carbon block needs to be filled into the electrolytic cell and used as a section of electrode in the electrolytic cell during subsequent use, the size standard of the anode carbon block directly affects the anode end position that can be effectively connected to the electrolytic cell, so that it can be effectively used as the anode of the electrolytic cell. At the same time, in order to effectively connect the anode position of the electrolytic cell, the anode carbon block needs to be provided with a groove, so as to achieve effective connection between the anode carbon block and the anode end of the electrolytic cell. Therefore, the groove setting on the anode carbon block needs to meet the production requirements of the manufacturer to ensure that the anode end rod in the electrolytic cell can be inserted into the groove of the anode carbon block with matching size. As for the anode carbon blocks during roasting, in order to prevent the grooves from expanding and deforming due to heat, fillers will be filled inside them after roasting to prevent the grooves from expanding and deforming due to heat. However, after the filling materials in the grooves are removed after roasting, the specific size of the grooves still needs to be detected to prevent them from being unable to be effectively installed at the anode position of the electrolytic cell.

[0025] An anode carbon block size detection device includes a volume size detection mechanism, a groove size detection mechanism, and a size detection platform, wherein the volume size detection mechanism and the groove size detection mechanism are arranged at the position of the size detection platform, and the size detection platform is arranged in conjunction with the progressive conveying mechanism; for the volume size detection mechanism arranged here, it is used to detect the length and width information of the anode carbon block, so as to determine whether the length and width dimensions of the anode carbon block meet the production requirements; for the groove size detection mechanism set by the size, it is used to detect the shape and size of the groove opened on the anode carbon block, so as to ensure that the groove matches the anode end in the electrolytic cell.

[0026] Volume size detection mechanism:

[0027] The volume size detection mechanism includes a contact detection plate 1 and a telescopic control member 2. The telescopic control member 2 is connected to the contact detection plate 1 to drive the contact detection plate 1 to move up and down. Because the size information of the anode carbon block needs to be detected here, the contact detection plate 1 and the telescopic control member 2 are set here, and the contact detection plate 1 is driven to move up and down by the telescopic control member 2. When the size of the anode carbon block needs to be detected, the telescopic control member 2 drives the contact detection plate 1 to move its position so that the contact detection plate 1 contacts the end face of the anode carbon block, so that the contact detection plate 1 detects the specific shape of the end face of the anode carbon block, thereby measuring the size information of the anode carbon block. Because the contact detection plate 1 is required to measure the size information of the anode carbon block, the contact detection plate 1 includes a connection base 5 and a pressure sensor 6. A plurality of the pressure sensors 6 are arranged at equal intervals on the connection base 5, and the plurality of the pressure sensors 6 are controlled by the connected control system; because the specific shape of the end face of the anode carbon block needs to be obtained so that the specific size information of the anode carbon block can be detected, the specific shape of the anode carbon block is detected by arranging a plurality of pressure sensors 6 at equal intervals on the connection base 5. When the telescopic control member 2 drives the contact detection plate 1 to move and contact the anode carbon block, the plurality of pressure sensors 6 will contact the end face of the anode carbon block at the same time, thereby sensing the pressure information and transmitting the pressure information to the control system connected to the pressure sensor 6. It should be noted here that for the pressure sensor 6 located on the connecting base 5, due to the limitation of the end face area of ​​the anode carbon block, only the pressure sensor 6 that contacts the anode carbon block will feel the pressure signal and transmit the pressure signal to the control system; while for the pressure sensor 6 that does not contact the anode carbon block, it itself will not contact the anode carbon block, and thus will not feel the pressure signal, and thus the specific position of the pressure sensor 6 that contacts the outermost position of the anode carbon block can be obtained, and then the size information of the end face of the anode carbon block that contacts the contact detection plate 1 can be measured.

[0028] Because when setting the pressure sensor 6 here, the setting density of the pressure sensor 6 can represent the measurement accuracy of the anode carbon block size. When the density of the pressure sensor 6 on the connection base 5 is large, it proves that the distance between adjacent pressure sensors 6 is smaller at this time. When the end face of the anode carbon block is measured, more pressure sensors 6 are pressed near the edge of the anode carbon block, so that more pressure sensors 6 can feel the pressure signal, thereby ensuring that the anode carbon block size measurement is more accurate. Because when setting here, in order to ensure that the pressure sensor 6 can effectively contact the anode carbon block, it is necessary to set the pressure sensor 6: first, because the surface of the anode carbon block is rough, it is necessary to ensure that the pressure sensor 6 will not be greatly worn after acting on the anode carbon block for a long time; secondly, because the anode carbon block itself is a mixture of petroleum coke and asphalt, after the pressure sensor 6 contacts the anode carbon block, it is necessary to avoid the pressure sensor 6 from adhering too much attachment to affect the subsequent normal measurement of the pressure sensor 6. Therefore, the detection end face of the pressure sensor 6 is covered with a squeeze gasket 7, and the squeeze gaskets 7 on the adjacent pressure sensors 6 cooperate with each other. After the extrusion gasket 7 is set, the pressure sensor 6 will not directly contact the end face of the anode carbon block, thereby being able to protect the extrusion end face of the pressure sensor 6 and avoid the problem of detection wear of the detection end face of the pressure sensor 6 after detection, thereby affecting the subsequent normal detection of the anode carbon block by the pressure sensor 6.

[0029] Groove size detection mechanism:

[0030] As for the groove size detection mechanism provided, it is used to detect the size of the groove on the anode carbon block. Because the groove opened on the anode carbon block is used to connect the anode end in the electrolytic cell, it is necessary to ensure that the groove opened meets the setting requirements of the electrolytic cell. The groove size detection mechanism includes a telescopic connector 3 and a detection terminal 4. The telescopic connector 3 is connected to the detection terminal 4, and the position of the detection terminal 4 is controlled by the telescopic connector 3; the detection terminal 4 includes a docking terminal 8, and the size of the docking terminal 8 matches the size of the groove of the anode carbon block; a pressure detection component is provided on the outside of the docking terminal 8. When setting here, the telescopic connector 3 is connected to the detection terminal 4, and the detection terminal 4 is driven to move up and down to detect the groove of the anode carbon block. Because the size of the groove of the anode carbon block needs to be set according to the requirements of the manufacturer, the detection terminal 4 is set as the docking terminal 8 here, and the docking terminal 8 is matched with the size of the groove of the anode carbon block, so as to ensure that the anode carbon block can effectively detect the size of the groove. At the same time, for the pressure detection component that is set up, when the docking end 8 goes deeper into the groove of the anode carbon block, the pressure detection component contacts the inner wall of the groove, so that the pressure detection component detects pressure information; and when the inside of the groove changes in size or is damaged, it will cause the data information obtained by the pressure detection component to change, thereby judging whether the groove of the anode carbon block is damaged.

[0031] For the docking terminal 8 provided here, a conventional mold corresponding to the size of the anode carbon block groove can be selected for molding and preparation. Of course, an adjustable size bracket can also be selected for setting, that is, the groove size requirements of the anode carbon block can be met. No more explanation is given here. Most importantly, the above-mentioned pressure detection component needs to be set, because for the pressure detection component provided, when setting it, it is necessary to ensure that the pressure detection component is in contact with the inner wall of the anode carbon block groove, so that a force is generated between the anode carbon block and the pressure detection component, so that the pressure detection component detects the pressure value of the inner wall of the anode carbon block groove. At the same time, it is also necessary to ensure that when the docking terminal 8 goes deep into the anode carbon block groove, the setting of the pressure detection component will not affect the normal penetration of the docking terminal 8, so as to avoid damage to the pressure detection component. Therefore, the pressure detection component includes a pressure sensor 9 and a universal ball bearing 10, and the pressure sensor 9 is connected to the universal ball bearing 10 through an elastic member 11, and a detection hole is provided on the docking end face of the docking terminal 8, and the universal ball bearing 10 is arranged in cooperation with the detection hole position. After the above settings are made, the universal ball bearing 10 provided here can ensure that when the docking end 8 penetrates into the groove of the anode carbon block, the universal ball bearing 10 contacts and slides with the inner wall of the groove of the anode carbon block, thereby ensuring that the pressure detection component can effectively follow the docking end 8 to penetrate into the groove of the anode carbon block; at the same time, the universal ball bearing 10 and the pressure sensor 9 here are connected by an elastic member 11, so that the pressure detection component and the inner wall of the groove of the anode carbon block are in an elastic contact state. When the universal ball bearing 10 contacts the damaged and concave part in the groove, the elastic member 11 will apply a force to the universal ball bearing 10, thereby changing the pressure detection value of the pressure sensor 9, thereby ensuring that the pressure detection component can effectively detect the size and damaged position in the groove of the anode carbon block.

[0032] For the pressure detection parts set up as above, when setting up, it is ensured that the pressure detection parts can evenly and effectively detect the size and damage position in the groove of the anode carbon block, so when setting the position of the pressure detection parts, multiple pressure detection parts need to cooperate with each other. Therefore, multiple pressure detection parts are arranged around and matched on the detection end face of the docking terminal 8, and then the size and damage of each position inside the groove of the anode carbon block can be detected by multiple pressure detection parts, thereby ensuring the effectiveness of the detection inside the groove of the anode carbon block.

[0033] Therefore, an anode carbon block size detection device can detect the volume size of the anode carbon block and the size of the groove, so as to determine whether the size of the produced anode carbon block meets the production requirements, and then ensure that the produced anode carbon block can effectively act on the anode end position of the electrolytic cell.

Claims

1. An anode carbon block size detection device, characterized in that: It includes a volume size detection mechanism, a groove size detection mechanism, and a size detection platform. The volume size detection mechanism and the groove size detection mechanism are arranged at the position of the size detection platform, and the size detection platform is arranged in conjunction with the progressive conveying mechanism; The volume size detection mechanism comprises a contact detection plate (1) and a telescopic control member (2); the telescopic control member (2) is connected to the contact detection plate (1) to drive the contact detection plate (1) to move up and down; The groove size detection mechanism comprises a telescopic connection piece (3) and a detection end head (4); the telescopic connection piece (3) is connected to the detection end head (4); and the position of the detection end head (4) is controlled by the telescopic connection piece (3).

2. The anode carbon block size detection device according to claim 1, characterized in that: The contact detection plate (1) comprises a connection base (5) and a pressure sensor (6); a plurality of the pressure sensors (6) are arranged at equal intervals on the connection base (5); and the plurality of the pressure sensors (6) are controlled by a connected control system.

3. The anode carbon block size detection device according to claim 2, characterized in that: The detection end surface of the pressure sensor (6) is covered with a compression gasket (7), and the compression gaskets (7) on adjacent pressure sensors (6) cooperate with each other.

4. The anode carbon block size detection device according to claim 1 or 3, characterized in that: The detection end head (4) comprises a butt end head (8), the size of the butt end head (8) matches the size of the groove of the anode carbon block; a pressure detection component is provided on the outer side of the butt end head (8).

5. The anode carbon block size detection device according to claim 4, characterized in that: The pressure detection component comprises a pressure sensor (9) and a universal ball bearing (10); the pressure sensor (9) and the universal ball bearing (10) are connected via an elastic component (11); a detection hole is provided on the butt end surface of the butt end head (8); and the universal ball bearing (10) is arranged in cooperation with the detection hole.

6. The anode carbon block size detection device according to claim 5, characterized in that: A plurality of the pressure detection components are arranged in a surrounding manner on the detection end surface of the butt end head (8).

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