Magnesia carbon brick detection machine

Abstract

The utility model relates to the technical field of magnesia carbon brick processing, in particular to a magnesia carbon brick detection machine table which comprises a table body, a table groove is formed in the middle of the table body in a penetrating mode, a clamping vessel is installed on the inner side of the table groove, meshes are formed in the end wall of one side, close to the top end of the table groove, of the table body, and the clamping vessel is installed on the other side of the table body. A table cavity is formed in the top end wall of the table body, table slideways are formed in the front end wall and the rear end wall of the top of the table body, a vertical ruler is installed on the top end wall, close to the table slideways, of the table body, and a sliding rail is installed on the bottom end wall of the vertical ruler. According to the utility model, the transverse channel and the sliding rule move, so that the sliding rule slides and moves along the length direction of the transverse channel, the sliding rule moves and clings to the end wall of the magnesia carbon brick, the length or width of the magnesia carbon brick is measured, the vertical rule measures the height and thickness of the magnesia carbon brick, and the vertical rule, the transverse rule and the sliding rule are matched to measure the length or width of the magnesia carbon brick. The device is used for rapidly measuring the length, the width and the height of the magnesia carbon brick, and the detection efficiency is higher.

Description

Technical Field

[0001] The utility model relates to the technical field of magnesia carbon brick processing, in particular to a magnesia carbon brick detection machine. Background Art

[0002] Magnesia carbon bricks are made of high melting point alkaline oxide magnesium oxide (melting point 2800℃) and high melting point carbon material that is difficult to be wetted by slag as raw materials, and various non-oxide additives are added. It is a non-burning carbon composite refractory material combined with a carbon binder. When testing magnesia carbon bricks, the magnesia carbon bricks will be placed on the testing platform to detect the size of the magnesia carbon bricks. This magnesia carbon brick testing machine is used to detect the size of magnesia carbon bricks.

[0003] There are a large number of magnesia carbon bricks during processing. During inspection, multiple magnesia carbon bricks will be extracted for inspection. A ruler will be set on the conventional table to detect the size of the magnesia carbon bricks. The efficiency of single size inspection is poor. At the same time, magnesia carbon bricks have three size parameters of length, width and height that need to be measured. The ruler of the ordinary table will be operated repeatedly during measurement, and the size measurement of the magnesia carbon bricks is not fast and convenient enough. Utility Model Content

[0004] The utility model aims to provide a magnesia-carbon brick detection machine.

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

[0006] A magnesia carbon brick detection machine comprises a table body, a table groove is penetrated in the middle of the table body, a clamping plate is installed on the inner side of the table groove, a mesh is provided on the end wall of the table body near the top of the table groove, a table cavity is provided on the top end wall of the table body, table slides are provided on both the front and rear end walls of the top of the table body, a vertical ruler is installed on the top end wall of the table body near the table slide, a slide rail is installed on the bottom end wall of the vertical ruler, a ruler sliding opening is provided on the end wall of the vertical ruler, a slider is installed on the inner side of the ruler sliding opening, a horizontal ruler is installed on the end side of the slider, a horizontal channel is penetrated on the middle end wall of the horizontal ruler, and a sliding ruler is installed on the inner side of the horizontal channel.

[0007] Preferably, the table body is connected with the clamping plate through a table groove, and the table groove is communicated with the mesh.

[0008] Preferably, the mesh holes are communicated with the table cavity, and the table body forms a sliding structure through a table slide and a slide rail.

[0009] Preferably, the slide rail is fixedly connected to the vertical ruler, and the vertical ruler forms a sliding structure with the slider through a ruler sliding opening.

[0010] Preferably, the sliders and the horizontal ruler are fixedly connected, and the sliders are symmetrically distributed about the center of the horizontal ruler.

[0011] Preferably, the horizontal ruler forms a sliding structure with the sliding ruler through the horizontal channel, and the number of the sliding rulers is four times the number of the horizontal rulers.

[0012] The utility model has at least the following beneficial effects:

[0013] 1. The table slot is used to assemble the card plate. The inner cavity of the card plate is used to store dry powder and activated carbon particles. After the card plate is assembled, it is ventilated through the mesh holes to dry and protect the magnesia carbon bricks stored in the inner cavity of the table, and the table slide and the slide rail are movable to slide the slide rail, so that the slide rail moves along the length direction of the table slide and changes the position of the slide rail. When the slide rail moves, the vertical ruler moves sideways. When measuring, the vertical ruler and the horizontal ruler move sideways so that the end wall of the vertical ruler and the horizontal ruler are close to and close to the end wall of the magnesia carbon brick, and the scale mark on the end wall of the horizontal ruler measures the length or width of the magnesia carbon brick;

[0014] 2. The horizontal track and the sliding ruler are movable to slide the sliding ruler, so that the sliding ruler moves along the length direction of the horizontal track. The sliding ruler moves close to the end wall of the magnesia carbon brick to measure the length or width of the magnesia carbon brick. At this time, the vertical ruler measures the height and thickness of the magnesia carbon brick. The vertical ruler, horizontal ruler and sliding ruler are used to quickly measure the length, width and height of the magnesia carbon brick, which is more efficient during detection. BRIEF DESCRIPTION OF THE DRAWINGS

[0015] In order to more clearly illustrate the technical solutions of the embodiments of the utility model, the drawings required for use in the description of the embodiments will be briefly introduced below. Obviously, the drawings described below are some embodiments of the utility model. For ordinary technicians in this field, other drawings can be obtained based on these drawings without paying creative work.

[0016] Figure 1 It is a schematic diagram of the utility model;

[0017] Figure 2 for Figure 1 Schematic diagram of the platform from top view;

[0018] Figure 3 for Figure 1 A left view schematic diagram of the vertical ruler and horizontal ruler;

[0019] Figure 4 for Figure 2 An enlarged schematic diagram of point A.

[0020] In the figure: 1, table body; 2, table groove; 3, clamping plate; 4, mesh hole; 5, table cavity; 6, table slide; 7, vertical ruler; 8, slide rail; 9, ruler sliding mouth; 10, slider; 11, horizontal ruler; 12, horizontal track; 13, sliding ruler. DETAILED DESCRIPTION

[0021] In order to make the purpose, technical solution and advantages of the utility model more clear, the utility model is further described in detail below in conjunction with the accompanying drawings and embodiments. It should be understood that the specific embodiments described here are only used to explain the utility model and are not used to limit the utility model.

[0022] See also Figure 1-4 The utility model provides a technical solution for a magnesia carbon brick detection machine:

[0023] Embodiment 1:

[0024] like Figure 1-4 As shown, a magnesia-carbon brick detection machine comprises a table body 1, a table groove 2 is penetrated in the middle of the table body 1, a clamping plate 3 is installed on the inner side of the table groove 2, a mesh hole 4 is opened on the end wall of the table body 1 near the top of the table groove 2, a table cavity 5 is opened on the top end wall of the table body 1, table slideways 6 are opened on the front and rear end walls of the top of the table body 1, a vertical ruler 7 is installed on the top end wall of the table body 1 near the table slide 6, a slide rail 8 is installed on the bottom end wall of the vertical ruler 7, a ruler sliding opening 9 is opened on the end wall of the vertical ruler 7, a slider 10 is installed on the inner side of the ruler sliding opening 9, a horizontal ruler 11 is installed on the end side of the slider 10, a horizontal channel 12 is penetrated on the middle end wall of the horizontal ruler 11, and a slider 13 is installed on the inner side of the horizontal channel 12.

[0025] Embodiment 2:

[0026] Based on the first embodiment, Figure 1 and Figure 2 As shown, the table body 1 is connected with the card dish 3 through the table groove 2, and the table groove 2 is connected with the mesh 4, and the mesh 4 is connected with the table cavity 5. At the same time, the table body 1 forms a sliding structure with the slide rail 8 through the table slide 6, and the slide rail 8 is fixedly connected with the vertical ruler 7, and the vertical ruler 7 forms a sliding structure with the slider 10 through the ruler sliding mouth 9. The card dish 3 is assembled through the table groove 2, and the inner cavity of the card dish 3 is used to store dry powder and activated carbon particles. After the card dish 3 is assembled, it is ventilated through the mesh 4 to the table cavity. 5 The magnesia carbon bricks stored inside are dried and protected to protect the magnesia carbon bricks, and the platform slide 6 and the slide rail 8 are movable to slide the slide rail 8, so that the slide rail 8 moves along the length direction of the platform slide 6 to change the position of the slide rail 8. When the slide rail 8 moves, the vertical ruler 7 moves sideways. When measuring, the vertical ruler 7 and the horizontal ruler 11 move sideways to make the end walls of the vertical ruler 7 and the horizontal ruler 11 close to and close to the end wall of the magnesia carbon brick, so that the scale mark on the end wall of the horizontal ruler 11 measures the length or width of the magnesia carbon brick;

[0027] Based on the first embodiment, Figure 3 and Figure 4As shown, the slider 10 and the horizontal ruler 11 are fixedly connected, and the slider 10 is symmetrically distributed about the center of the horizontal ruler 11. The horizontal ruler 11 forms a sliding structure with the slider 13 through the horizontal channel 12, and the number of the sliders 13 is four times the number of the horizontal ruler 11. The horizontal channel 12 and the slider 13 are movable to slide the slider 13, so that the slider 13 is displaced along the length direction of the horizontal channel 12. The slider 13 is displaced and attached to the end wall of the magnesium carbon brick. For the length or width of the magnesium carbon brick, the vertical ruler 7 measures the height and thickness of the magnesium carbon brick. The vertical ruler 7, the horizontal ruler 11 and the slider 13 cooperate to quickly measure the length, width and height of the magnesium carbon brick, and the detection efficiency is higher.

[0028] Working principle: The fixture 3 is connected through the table slot 2. The inner cavity of the fixture 3 is used to store dry powder and activated carbon particles. After the fixture 3 is connected, it is ventilated through the mesh 4 to dry and protect the magnesia carbon bricks stored in the table cavity 5. The table slide 6 and the slide rail 8 are movable to slide the slide rail 8, so that the slide rail 8 moves along the length direction of the table slide 6 to change the position of the slide rail 8. When the slide rail 8 moves, it drives the vertical ruler 7 to move sideways. When measuring, the vertical ruler 7 and the horizontal ruler 11 are moved sideways to make the end wall of the vertical ruler 7 and the horizontal ruler 11 close to the table slide 6. Close to and tightly against the end wall of the magnesia carbon brick, the scale mark on the end wall of the horizontal ruler 11 measures the length or width of the magnesia carbon brick, and the horizontal track 12 and the sliding ruler 13 are movable to slide the sliding ruler 13, so that the sliding ruler 13 is displaced along the length direction of the horizontal track 12, and the sliding ruler 13 is displaced and tightly against the end wall of the magnesia carbon brick to measure the length or width of the magnesia carbon brick. At this time, the vertical ruler 7 measures the height and thickness of the magnesia carbon brick. The vertical ruler 7, the horizontal ruler 11 and the sliding ruler 13 cooperate to quickly measure the length, width and height of the magnesia carbon brick, and the detection efficiency is higher.

[0029] The above shows and describes the basic principle, main features and advantages of the utility model. Those skilled in the art should understand that the utility model is not limited by the above embodiments. The above embodiments and the specification only describe the principles of the utility model. The utility model may be subject to various changes and improvements without departing from the spirit and scope of the utility model. These changes and improvements fall within the scope of the utility model to be protected. The scope of protection claimed by the utility model is defined by the attached claims and their equivalents.

Claims

1. A magnesia carbon brick testing machine, comprising a machine body (1), characterized in that: A table groove (2) is provided in the middle of the table body (1), a clamping plate (3) is installed on the inner side of the table groove (2), a mesh hole (4) is provided on the end wall of the table body (1) near the top of the table groove (2), a table cavity (5) is provided on the top end wall of the table body (1), table slideways (6) are provided on the front and rear end walls of the top of the table body (1), a vertical ruler (7) is installed on the top end wall of the table body (1) near the table slideway (6), a slide rail (8) is installed on the bottom end wall of the vertical ruler (7), a ruler sliding opening (9) is provided on the end wall of the vertical ruler (7), a slider (10) is installed on the inner side of the slider (10), a horizontal ruler (11) is installed on the end side of the slider (10), a horizontal channel (12) is provided on the middle end wall of the horizontal ruler (11), and a slider (13) is installed on the inner side of the horizontal channel (12).

2. A magnesia carbon brick detection machine according to claim 1, characterized in that: The table body (1) is clamped with the clamping plate (3) via the table groove (2), and the table groove (2) is communicated with the mesh (4).

3. A magnesia carbon brick detection machine according to claim 1, characterized in that: The mesh (4) is communicated with the table cavity (5), and the table body (1) forms a sliding structure through the table slideway (6) and the slide rail (8).

4. A magnesia carbon brick detection machine according to claim 1, characterized in that: The slide rail (8) is fixedly connected to the vertical ruler (7), and the vertical ruler (7) forms a sliding structure through a ruler sliding opening (9) and a sliding block (10).

5. A magnesia carbon brick detection machine according to claim 1, characterized in that: The slider (10) and the horizontal ruler (11) are fixedly connected, and the sliders (10) are symmetrically distributed about the center of the horizontal ruler (11).

6. A magnesia carbon brick detection machine according to claim 1, characterized in that: The horizontal ruler (11) forms a sliding structure with the sliding ruler (13) through the horizontal channel (12), and the number of the sliding rulers (13) is four times the number of the horizontal ruler (11).

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