Liquid crystal glass devitrification removing device

Abstract

The invention relates to the technical field of liquid crystal glass substrate processing and manufacturing, in particular to a liquid crystal glass devitrification removing device which comprises a transformer, a power regulator, a heating wire assembly and a supporting assembly, the primary side of the transformer is electrically connected with the power regulator, and the heating wire assembly is electrically connected with the secondary side of the transformer through a flexible cable; the heating wire assembly is installed on the supporting assembly. Through the heating wire assembly, the whole plate body is put into the muffle furnace, devitrification can be removed, the product quality of glass in the machining process is improved, through the arrangement of the first adjusting piece, the heating wire is coated and protected, meanwhile, the radiation area of the heating wire assembly can be correspondingly adjusted according to different devitrification numbers, and the service life of the heating wire assembly is prolonged. By arranging the heating wire assembly, the devitrification removal efficiency is improved, the relative position of the heating wire assembly in the plate body can be adjusted by arranging the second adjusting piece, the heating wire assembly can be adjusted to different positions according to different devitrification forming positions, and devitrification formed at the positions is removed.

Description

Technical Field

[0001] The invention relates to the technical field of liquid crystal glass substrate processing and manufacturing, and in particular to a device for removing crystallization of liquid crystal glass. Background Art

[0002] Overflow down-draw method is a process for manufacturing flat glass, that is, high-viscosity liquid glass at the inlet flows into the internal groove of the overflow brick, flows downward along the two sides, converges at the guide plate and merges at the junction of the two sides (brick tip) to form a glass ribbon of a certain width.

[0003] The production equipment of overflow down-draw molding mainly includes a muffle furnace, a molding furnace and an annealing furnace. The high-temperature glass liquid is located in the muffle furnace area, and the area where the guide plate is located is in the separation area between the high-temperature glass liquid and the molding glass substrate. In addition, the temperature of the area where the guide plate is located is 1070℃-1170℃, and the glass will produce siliceous precipitates (crystallization) at 1110℃. The temperature of producing siliceous precipitates is within the above range, which easily leads to the formation of crystallization when the high-temperature glass liquid flows through the guide plate. There is a corner at the junction of the overflow brick and the guide plate, which easily leads to the formed crystallization not being able to smoothly flow with the glass liquid. The crystallization rate at the corner will be further aggravated as time goes by, and the large-scale accumulation of crystals at the guide plate will affect the normal production of glass. Therefore, it is necessary to remove the crystals accumulated at the corner to restore the production quality of glass. Summary of the invention

[0004] In order to solve the technical problems existing in the above-mentioned background technology, the present invention proposes a device for removing crystallization of liquid crystal glass.

[0005] To achieve the above object, the present invention provides the following technical solutions:

[0006] A device for removing crystallization of liquid crystal glass comprises: a transformer, a power regulator, a heating wire assembly, and a support assembly. The primary side of the transformer is electrically connected to the power regulator, the heating wire assembly is electrically connected to the secondary side of the transformer through a flexible cable, and the heating wire assembly is mounted on the support assembly.

[0007] Preferably, the support assembly comprises: a plate body, a first adjusting member, the heating wire assembly is carried on the plate body, a protrusion is provided on the same side of the plate body as the heating wire assembly, a first open storage chamber is provided in the protrusion, a filling plate adapted to the storage chamber is movably installed in the storage chamber, the first adjusting member is installed on the plate body and connected to the filling plate, the movement of the first adjusting member can link the filling plate to enter and exit the storage chamber through the first opening, preferably, the filling plate is made of a material with a low thermal conductivity coefficient.

[0008] Preferably, the action of the first adjusting member can drive the filling plate to enter and exit the storage chamber through the first opening. Specifically, when crystallization occurs in the high-temperature glass liquid area close to the device, the first adjusting member is actuated and drives the filling plate to leave the storage chamber through the first opening to increase heat radiation and eliminate crystallization at high temperature; when crystallization does not occur in the high-temperature glass liquid area close to the device or after crystallization is eliminated, the first adjusting member is actuated and drives the filling plate to enter the storage chamber through the first opening to reduce heat radiation.

[0009] Preferably, the protrusion surrounds the heating wire assembly.

[0010] Preferably, the first adjusting member specifically comprises:

[0011] The storage chamber has a second opening opposite to the first opening, and the first adjusting member specifically includes: a first shaft body, the first shaft body is rotatably connected to the supporting assembly, and a first lever is vertically installed at one end of the first shaft body. During the rotation of the first shaft body, the first lever can enter the storage chamber through the second opening and push the filling plate out of the storage chamber through the first opening part. The first lever can also be separated from the storage chamber through the second opening and located directly below the storage chamber so that the filling plate falls back into the storage chamber by its own weight or retracts into the storage chamber by the force of the reset member.

[0012] Preferably, the first adjusting member also includes: a second shaft body, the second shaft body is rotatably connected to the supporting assembly, and a second lever is vertically installed at one end of the second shaft body. During the rotation of the second shaft body, the second lever can enter the storage chamber through the second opening and push the filling plate out of the storage chamber through the first opening part. The second lever can also be separated from the storage chamber through the second opening and located directly below the storage chamber so that the filling plate falls back into the storage chamber by its own weight or retracts into the storage chamber due to the force of the reset member.

[0013] Preferably, the first adjusting member also includes a driving gear, the first shaft has a first driven external tooth at one end away from the first lever, the second shaft has a second driven external tooth at one end away from the second lever, the first driven external tooth and the second driven external tooth are both engaged with the driving gear, the driving gear can drive the first shaft and the second shaft to move synchronously, and the free end of the first lever and the free end of the second lever are always in synchronous contact with or synchronously separated from the filling plate.

[0014] Preferably, the support assembly further comprises a second adjusting member, which is connected to the heating wire assembly and can drive the heating wire assembly to approach or move away from a portion of the protrusion opposite to one side of the flexible cable.

[0015] Preferably, the second adjusting member is connected to the hot wire assembly and can drive the heating wire assembly to approach or move away from the partial protrusion opposite to one side of the flexible cable. Specifically, when crystallization occurs in the high-temperature glass liquid region close to the partial protrusion opposite to one side of the flexible cable, the second adjusting member is actuated and links the heating wire assembly to approach the partial protrusion opposite to one side of the flexible cable so as to approach the high-temperature glass liquid region where crystallization occurs to increase heat radiation and eliminate crystallization at high temperature; when crystallization does not occur in the high-temperature glass liquid region close to the partial protrusion opposite to one side of the flexible cable or crystallization is eliminated, the second adjusting member is actuated and moves away from the partial protrusion opposite to one side of the flexible cable so as to move away from the high-temperature glass liquid region where crystallization does not occur or after crystallization is eliminated to reduce heat radiation.

[0016] Preferably, the second adjusting member specifically comprises:

[0017] A driving board, wherein the driving board has a through hole, and the driving board is connected to the heating wire assembly;

[0018] A guide rod, the guide rod is mounted on the plate body, and the guide rod is slidably fitted in the through hole;

[0019] A push rod is connected to the driving plate, and the push rod drives the heating wire assembly to move on the plate body by pushing and pulling the driving plate.

[0020] Compared with the prior art, the beneficial effects of the present invention are:

[0021] Compared with the prior art, by arranging a heating wire assembly on the plate body and placing the entire plate body into the muffle furnace, the crystallization at the junction of the overflow brick and the guide plate can be removed, thereby improving the product quality of the glass during the processing process; by arranging a first adjusting member, while covering and protecting the heating wire, the radiation area of ​​the heating wire assembly can be adjusted accordingly according to the different numbers of crystallization crystals, thereby improving the removal efficiency of the crystallization; by arranging a second adjusting member, the relative position of the heating wire assembly inside the plate body can be adjusted, and the heating wire assembly can be adjusted to different positions according to the different positions where the crystallization is formed, and the crystallization formed at this position can be removed. BRIEF DESCRIPTION OF THE DRAWINGS

[0022] Figure 1 This is a schematic diagram of the structure of the device for removing crystallization of liquid crystal glass proposed by the present invention;

[0023] Figure 2 This is a schematic diagram of the structure of the plate in the device for removing crystallization of liquid crystal glass proposed by the present invention;

[0024] Figure 3A side view of a plate in the device for removing crystallization of liquid crystal glass proposed by the present invention;

[0025] Figure 4 This is a structural diagram of a filling plate in a liquid crystal glass crystal removal device proposed by the present invention in a first state;

[0026] Figure 5 This is a structural diagram of the second state of the filling plate in the liquid crystal glass devitrification removal device proposed by the present invention;

[0027] Figure 6 This is a structural diagram of the filling plate in the liquid crystal glass devitrification removal device proposed by the present invention in the third state.

[0028] In the figure: 1-power regulator, 2-transformer, 3-heating wire assembly, 4-plate body, 5-storage chamber, 6-filling plate, 7-first shaft body, 71-first lever, 8-reset member, 9-second shaft body, 91-second lever, 10-driving gear, 11-first driven external tooth, 12-second driven external tooth, 13-driving plate, 14-guide rod, 15-push rod. DETAILED DESCRIPTION

[0029] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0030] like Figure 1-Figure 6 As shown, this embodiment provides a device for removing crystallization of liquid crystal glass, including: a transformer 2, a power regulator 1, a heating wire assembly 3, and a support assembly. The primary side of the transformer 2 is electrically connected to the power regulator 1, the heating wire assembly 3 is electrically connected to the secondary side of the transformer 2 through a flexible cable, and the heating wire assembly 3 is installed on the support assembly.

[0031] On the whole, the supporting assembly is placed in the muffle furnace as a whole, and the power is turned on. The power of the heating wire assembly 3 is further controlled by setting the power of the power regulator 1 to eliminate the crystallization in the high-temperature glass liquid area, so that the crystallization becomes soft and flows down with the high-temperature glass liquid, thereby improving the product quality of the glass during the processing process. By controlling the multiple gears of the transformer 2, the appropriate gear can be selected according to the resistance of the heating wire assembly 3 used, and the selection can be made according to the actual situation, and there is no limitation here.

[0032] like Figure 1-Figure 2As shown, in one embodiment, the support assembly includes: a plate body 4, a first adjusting member, the heating wire assembly 3 is carried on the plate body 4, the plate body 4 has a protrusion on the same side as the heating wire assembly 3, the protrusion has a first open storage chamber 5, a filling plate 6 adapted to the storage chamber 5 is movably installed in the storage chamber 5, the first adjusting member is installed on the plate body 4 and connected to the filling plate 6, the movement of the first adjusting member can link the filling plate 6 to enter and exit the storage chamber 5 through the first opening, preferably, the filling plate 6 is made of a material with a low thermal conductivity coefficient.

[0033] By setting a first adjustment member on the support assembly, the position of the filling plate 6 in the storage cavity can be adjusted, thereby changing the radiation area of ​​the heating wire assembly 3. The filling plate 6 can be adjusted accordingly according to the number of crystallizations at the position of the high-temperature glass liquid, thereby improving the efficiency of the heating wire assembly 3 in removing crystals, making the crystals soften and flow down with the high-temperature glass liquid. The filling plate 6 is made of a material with a low thermal conductivity coefficient, which can be selected according to the cost and use environment, and is not limited here.

[0034] Specifically, the plate body 4 is made of a metal material that can be used for a long time in an environment of 1200 degrees Celsius and is not easily deformed. The material can be selected according to the use cost and the use environment, and there is no limitation here.

[0035] like Figure 4-Figure 6 As shown, in one embodiment, the action of the first adjusting member can link the filling plate 6 to enter and exit the storage chamber 5 through the first opening. Specifically, when crystallization occurs in the high-temperature glass liquid area close to the device, the first adjusting member is actuated and links the filling plate 6 to leave the storage chamber 5 through the first opening to increase heat radiation to eliminate crystallization at high temperature; when crystallization does not occur in the high-temperature glass liquid area close to the device or after crystallization is eliminated, the first adjusting member is actuated and links the filling plate 6 to enter the storage chamber 5 through the first opening to reduce heat radiation.

[0036] like Figure 1-Figure 2 As shown, in one embodiment, the protrusion surrounds the heating wire assembly 3 .

[0037] Specifically, the material selected for the heating wire component 3 has the characteristics of low resistance, high power, small volume, high heating temperature, and stable heating. It can effectively improve the heating efficiency and stability of the heating wire component 3, and also improve the safety performance of the device. The material selected for the heating wire component 3 can be selected according to actual conditions and is not restricted here.

[0038] By making the protrusion surround the heating wire assembly 3, the high temperature generated by the heating wire assembly 3 can be used to remove the crystallization at the junction of the overflow brick and the guide plate, making the crystallization soften and flow down with the high-temperature glass liquid, and at the same time the heating wire assembly 3 can be protected.

[0039] like Figure 4-Figure 6As shown, in one embodiment, the first adjusting member specifically includes:

[0040] The storage chamber 5 has a second opening opposite to the first opening, and the first adjusting member specifically includes: a first shaft body 7, the first shaft body 7 is rotatably connected to the support assembly, and a first lever 71 is vertically installed at one end of the first shaft body 7. During the rotation of the first shaft body 7, the first lever 71 can enter the storage chamber 5 through the second opening and push the filling plate 6 out of the storage chamber 5 through the first opening part. The first lever 71 can also be separated from the storage chamber 5 through the second opening and located directly below the storage chamber 5 so that the filling plate 6 falls back into the storage chamber 5 by its own weight or retracts into the storage chamber 5 by the force of the reset member 8.

[0041] Specifically, the first shaft body 7 on the plate body 4 is driven to rotate by the driving element, and the first shaft body 7 further drives the first lever 71 vertically installed therewith to rotate. During the rotation of the first lever 71, the first lever 71 enters the storage chamber 5 through the second opening on one side of the storage chamber 5 and pushes the filling plate 6 out of the storage chamber 5 through the first opening portion. By partially pushing the filling plate 6 out of the storage chamber 5, the storage chamber 5 is in a hollow state, which can increase the radiation area of ​​the heating wire assembly 3. In actual situations, the filling plate 6 can be adjusted accordingly according to the amount of crystallization at the junction of the overflow brick and the guide plate, so as to improve the efficiency of crystallization removal, soften the crystallization and flow down with the high-temperature glass liquid, thereby improving the product quality of the glass during the processing process. When the crystallization at the junction of the overflow brick and the guide plate is relatively small, the first shaft body 7 can be rotated in the opposite direction to make the filling plate 6 fall back into the storage chamber 5 by its own weight or retract into the storage chamber 5 by the force of the reset member 8.

[0042] like Figure 4-Figure 6 As shown, in one embodiment, the first adjusting member also includes: a second shaft body 9, the second shaft body 9 is rotatably connected to the supporting assembly, and a second lever 91 is vertically installed at one end of the second shaft body 9. During the rotation of the second shaft body 9, the second lever 91 can enter the storage chamber 5 through the second opening and push the filling plate 6 out of the storage chamber 5 through the first opening part. The second lever 91 can also be separated from the storage chamber 5 through the second opening and located directly below the storage chamber 5 so that the filling plate 6 falls back into the storage chamber 5 by its own weight or retracts into the storage chamber 5 by the force of the reset member 8.

[0043] In another embodiment of the present invention, the second shaft body 9 can be rotatably installed on the plate body 4, and the first shaft body 7 and the second shaft body 9 can be driven to rotate synchronously by a driving element, and the first shaft body 7 and the second shaft body 9 can respectively drive the first lever 71 and the second lever 91 to rotate accordingly. Through the synchronous rotation of the first lever 71 and the second lever 91, the first lever 71 and the second lever 91 enter the storage chamber 5 through the second opening on one side of the storage chamber 5 and push the filling plate 6 out of the storage chamber 5 through the first opening. By partially pushing the filling plate 6 out of the storage chamber 5, The storage chamber 5 is hollowed out, which can increase the radiation area of ​​the heating wire assembly 3. In actual situations, the filling plate 6 can be adjusted accordingly according to the amount of crystallization at the junction of the overflow brick and the guide plate, so as to improve the efficiency of removing crystallization, soften the crystallization and flow down with the high-temperature glass liquid, thereby improving the product quality of the glass during the processing. When the crystallization at the junction of the overflow brick and the guide plate is relatively small, the first shaft 7 and the second shaft 9 can be rotated in opposite directions to make the filling plate 6 fall back into the storage chamber 5 by its own weight or retract into the storage chamber 5 by the force of the reset member 8.

[0044] like Figure 3-Figure 6 As shown, in one embodiment, the first adjusting member also includes a driving gear 10, the first shaft 7 has a first driven external tooth 11 at one end away from the first lever 71, and the second shaft 9 has a second driven external tooth 12 at one end away from the second lever 91, the first driven external tooth 11 and the second driven external tooth 12 are both engaged with the driving gear 10, the driving gear 10 can drive the first shaft 7 and the second shaft 9 to move synchronously, and the free end of the first lever 71 and the free end of the second lever 91 are always in synchronous contact with or synchronously separated from the filling plate 6.

[0045] In another embodiment of the present invention, the driving gear 10 can also be controlled to rotate by a control element. Since the first driven outer teeth 11 and the second driven outer teeth 12 are both meshed with the driving gear 10, the rotation of the driving gear 10 can drive the first shaft body 7 and the second shaft body 9 to rotate synchronously, and the first shaft body 7 and the second shaft body 9 respectively drive the first lever 71 and the second lever 91 to rotate accordingly. Through the synchronous rotation of the first lever 71 and the second lever 91, the first lever 71 and the second lever 91 enter the storage chamber 5 through the second opening on one side of the storage chamber 5 and push the filling plate 6 out of the storage chamber 5 through the first opening portion, and By partially pushing part of the filling plate 6 out of the storage chamber 5, the storage chamber 5 is in a hollow state, which can increase the radiation area of ​​the heating wire assembly 3. In actual situations, the filling plate 6 can be adjusted accordingly according to the amount of crystallization at the junction of the overflow brick and the guide plate, so as to improve the efficiency of removing crystallization, soften the crystallization and flow down with the high-temperature glass liquid, thereby improving the product quality of the glass during the processing. When the crystallization at the junction of the overflow brick and the guide plate is relatively small, the first shaft 7 and the second shaft 9 can be rotated in opposite directions to make the filling plate 6 fall back into the storage chamber 5 by its own weight or retract into the storage chamber 5 by the force of the reset member 8.

[0046] like Figure 1-Figure 2 As shown, in one embodiment, the support assembly further includes a second adjusting member, which is connected to the heating wire assembly and can drive the heating wire assembly 3 to move closer to or away from the protruding portion opposite to one side of the flexible cable.

[0047] On the whole, the position of the heating wire assembly 3 inside the plate body 4 can also be adjusted accordingly by controlling the second adjusting member, so that the heating wire assembly 3 is close to or away from the protruding portion opposite to one side of the flexible cable. According to actual conditions, the heating wire assembly 3 can be adjusted to an area closer to the crystallization position to improve the heating efficiency of the heating wire assembly 3, so that the crystallization becomes soft and flows down with the high-temperature glass liquid, thereby improving the product quality of the glass during the processing process.

[0048] like Figure 1-Figure 2 As shown, in one embodiment, the second adjusting member is connected to the hot wire assembly and can drive the heating wire assembly 3 to be close to or away from the partial protrusion opposite to one side of the flexible cable. Specifically, when crystallization occurs in the high-temperature glass liquid area close to the partial protrusion opposite to one side of the flexible cable, the second adjusting member is actuated and links the heating wire assembly 3 to be close to the partial protrusion opposite to one side of the flexible cable so as to be close to the high-temperature glass liquid area where crystallization occurs to increase heat radiation and eliminate crystallization at high temperature; when crystallization does not occur in the high-temperature glass liquid area close to the partial protrusion opposite to one side of the flexible cable or crystallization is eliminated, the second adjusting member is actuated and moves away from the partial protrusion opposite to one side of the flexible cable so as to be away from the high-temperature glass liquid area where crystallization does not occur or after crystallization is eliminated to reduce heat radiation.

[0049] like Figure 1-Figure 2 As shown, in one embodiment, the second adjusting member specifically includes:

[0050] A driving plate 13, wherein the driving plate 13 has a through hole, and the driving plate 13 is connected to the heating wire assembly 3;

[0051] A guide rod 14, which is mounted on the plate body 4 and is slidably fitted into the through hole;

[0052] The push rod 15 is connected to the driving plate 13 , and the push rod 15 drives the heating wire assembly 3 to move on the plate body 4 by pushing and pulling the driving plate 13 .

[0053] Specifically, since the guide rod 14 is slidably fitted in the through hole, the driving plate 13 can slide along the path of the guide rod 14 by pulling the push rod 15, and then the position of the heating wire assembly 3 inside the plate body 4 is adjusted accordingly, so that the heating wire assembly 3 is close to or away from the protrusion opposite to one side of the flexible cable. According to actual conditions, the heating wire assembly 3 can be adjusted to an area closer to the crystallization position, thereby improving the heating efficiency of the heating wire assembly 3, making the crystallization soften and flow down with the high-temperature glass liquid, thereby improving the product quality of the glass during the processing process.

[0054] Of course, it is obvious to those skilled in the art that the present invention is not limited to the details of the exemplary embodiments described above, but also includes the same or similar structures that can be implemented in other specific forms without departing from the spirit or essential features of the present invention. Therefore, no matter from which point of view, the embodiments should be regarded as exemplary and non-limiting, and the scope of the present invention is defined by the appended claims rather than the above description, and it is intended that all changes falling within the meaning and scope of the equivalent elements of the claims are included in the present invention. Any reference numerals in the claims should not be regarded as limiting the claims involved.

[0055] In addition, it should be understood that although the present specification is described according to implementation modes, not every implementation mode contains only one independent technical solution. This description of the specification is only for the sake of clarity. Those skilled in the art should regard the specification as a whole. The technical solutions in each embodiment may also be appropriately combined to form other implementation modes that can be understood by those skilled in the art.

[0056] The techniques, shapes, and structural parts not described in detail in the present invention are all well-known techniques.

Claims

1. A device for removing crystallization of liquid crystal glass, comprising: A transformer (2), a power regulator (1), a heating wire assembly (3), and a support assembly. The primary side of the transformer (2) is electrically connected to the power regulator (1), the heating wire assembly (3) is electrically connected to the secondary side of the transformer (2) via a flexible cable, and the heating wire assembly (3) is mounted on the support assembly.

2. The device for removing crystallization of liquid crystal glass according to claim 1, characterized in that: The support assembly comprises: a plate body (4) and a first adjusting member. The heating wire assembly (3) is carried on the plate body (4). The plate body (4) has a protrusion on the same side as the heating wire assembly (3). The protrusion has a first open storage chamber (5). A filling plate (6) adapted to the storage chamber (5) is movably installed in the storage chamber (5). The first adjusting member is installed on the plate body (4) and connected to the filling plate (6). The first adjusting member can be moved to link the filling plate (6) to enter and exit the storage chamber (5) through the first opening. Preferably, the filling plate (6) is made of a material with a low thermal conductivity coefficient.

3. The device for removing crystallization of liquid crystal glass according to claim 2, characterized in that: The first adjusting member can be actuated to drive the filling plate (6) to enter and exit the storage chamber (5) through the first opening. Specifically, when crystallization occurs in the high-temperature glass liquid region near the device, the first adjusting member is actuated and drives the filling plate (6) to leave the storage chamber (5) through the first opening to increase heat radiation and eliminate crystallization at high temperature; when crystallization does not occur in the high-temperature glass liquid region near the device or crystallization is eliminated, the first adjusting member is actuated and drives the filling plate (6) to enter the storage chamber (5) through the first opening to reduce heat radiation.

4. The device for removing crystallization of liquid crystal glass according to claim 2, characterized in that: The protrusion surrounds the heating wire assembly (3).

5. The device for removing crystallization of liquid crystal glass according to claim 3, characterized in that: The first adjusting member specifically comprises: The storage chamber (5) has a second opening opposite to the first opening. The first adjusting member specifically comprises: a first shaft (7), the first shaft (7) is rotatably connected to the support assembly, and a first lever (71) is vertically mounted at one end of the first shaft (7). During the rotation of the first shaft (7), the first lever (71) can enter the storage chamber (5) through the second opening and push the filling plate (6) out of the storage chamber (5) through the first opening. The first lever (71) can also be separated from the storage chamber (5) through the second opening and located directly below the storage chamber (5) so that the filling plate (6) falls back into the storage chamber (5) by its own weight or retracts into the storage chamber (5) by the force of the reset member (8).

6. The device for removing crystallization of liquid crystal glass according to claim 5, characterized in that: The first adjusting member further comprises: a second shaft (9), the second shaft (9) being rotatably connected to the supporting assembly, a second lever (91) being vertically mounted at one end of the second shaft (9), and during the rotation of the second shaft (9), the second lever (91) can enter the storage chamber (5) through the second opening and push the filling plate (6) out of the storage chamber (5) through the first opening, and the second lever (91) can also be separated from the storage chamber (5) through the second opening and be located directly below the storage chamber (5) so that the filling plate (6) falls back into the storage chamber (5) by its own weight or retracts into the storage chamber (5) by the force of the reset member (8).

7. The device for removing crystallization of liquid crystal glass according to claim 6, characterized in that: The first adjusting member further comprises a driving gear (10); the first shaft (7) has a first driven external tooth (11) at one end away from the first lever (71); the second shaft (9) has a second driven external tooth (12) at one end away from the second lever (91); the first driven external tooth (11) and the second driven external tooth (12) are both meshed with the driving gear (10); the driving gear (10) can drive the first shaft (7) and the second shaft (9) to move synchronously; and the free end of the first lever (71) and the free end of the second lever (91) are always in synchronous contact with or synchronously separated from the filling plate (6).

8. The device for removing crystallization of liquid crystal glass according to claim 2, characterized in that: The support assembly also includes a second adjusting member, which is connected to the heating wire assembly and can drive the heating wire assembly (3) to move closer to or farther from the protruding portion opposite to one side of the flexible cable.

9. The device for removing crystallization of liquid crystal glass according to claim 8, characterized in that: The second adjusting member is connected to the hot wire assembly and can drive the heating wire assembly (3) to approach or move away from the portion of the protrusion opposite to one side of the flexible cable. Specifically, when crystallization occurs in the high-temperature glass liquid region close to the portion of the protrusion opposite to one side of the flexible cable, the second adjusting member is actuated and linked to drive the heating wire assembly (3) to approach the portion of the protrusion opposite to one side of the flexible cable so as to approach the high-temperature glass liquid region where crystallization occurs, thereby increasing heat radiation and eliminating crystallization at high temperature; when crystallization does not occur in the high-temperature glass liquid region close to the portion of the protrusion opposite to one side of the flexible cable or crystallization is eliminated, the second adjusting member is actuated and moves away from the portion of the protrusion opposite to one side of the flexible cable so as to move away from the high-temperature glass liquid region where crystallization does not occur or crystallization is eliminated, thereby reducing heat radiation.

10. The device for removing crystallization of liquid crystal glass according to claim 8, characterized in that: The second adjusting member specifically comprises: A driving plate (13), wherein the driving plate (13) has a through hole, and the driving plate (13) is connected to the heating wire assembly (3); A guide rod (14), the guide rod (14) is mounted on the plate body (4), and the guide rod (14) is slidably fitted in the through hole; A push rod (15) is connected to the driving plate (13). The push rod (15) drives the heating wire assembly (3) to move on the plate body (4) by pushing and pulling the driving plate (13).

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