Fabricated feeding port structure of glass substrate kiln

Abstract

The utility model discloses an assembled feeding port structure of a glass substrate kiln, relates to the technical field of glass kilns, and solves the technical problems that the operation is more complicated and the consumed time is longer under the condition that the position of the feeding port of the existing glass substrate kiln needs to be changed. The position, where the feeding port is formed, of the surface of the glass substrate kiln is changed into the equipment block with the larger size, the position of the feeding port is fixed through the equipment block, more choices can be provided for the position of the feeding port on the basis that the glass substrate kiln is not disassembled, and the sliding connecting block and the filling block are arranged in the equipment block, so that the equipment block is more convenient to use. The feeding port is fixed in the equipment block, and the gap between the connecting block and the equipment block is further filled with the filling block, so that the position cannot dissipate a large amount of heat when the kiln opening is used; when the position of the feeding port needs to be changed through the sliding connecting block and the sliding equipment block, the position of the connecting block can be changed in a sliding mode, position changing of the feeding port can be achieved through multi-structure sliding and recombination, and operation is easier, more convenient and faster.

Description

Technical Field

[0001] The utility model belongs to the field of glass kilns and relates to a feeding port technology, in particular to an assembled feeding port structure of a glass substrate kiln. Background Art

[0002] TFT-LCD substrate glass is one of the key materials used in the manufacture of liquid crystal displays, and TFT-LCD glass substrate kilns are key equipment for producing high-quality TFT-LCD glass substrates.

[0003] Existing kilns are generally manufactured by stacking refractory materials. The refractory materials are directly manufactured according to standards at designated locations based on design drawings. During the manufacturing process, a feed port position needs to be reserved to facilitate subsequent stacking or installation of the feed port. The feed port is surrounded by refractory materials. However, when the environment around the kiln changes, resulting in changes in factors such as wind direction or changes in production needs, the position of the kiln feed port needs to be adjusted accordingly.

[0004] However, after the kiln charging port is determined to be changed, the original charging port needs to be dismantled first, and a new space needs to be opened at the designated location to accommodate the new charging port. During this process, refractory materials still need to be stacked and dismantled, and refractory materials are generally stacked crosswise. Relatively speaking, dismantling and restacking take a long time, and care needs to be taken to avoid damage to more areas during the process. As a result, the operation is more complicated and the requirements for operators are higher.

[0005] To this end, the utility model proposes an assembled feeding port structure for a glass substrate kiln. Utility Model Content

[0006] The present invention aims to solve at least one of the technical problems existing in the prior art. To this end, the present invention proposes a prefabricated feeding port structure for a glass substrate kiln. This prefabricated feeding port structure for a glass substrate kiln solves the problem that the feeding port of a glass substrate kiln in the prior art is complicated and time-consuming to operate when the position needs to be changed.

[0007] To achieve the above-mentioned object, according to an embodiment of the first aspect of the present invention, an assembled feeding port structure for a glass substrate furnace is provided, comprising a device block and a feeding structure, wherein the device block is fixedly disposed inside the glass substrate furnace; the feeding structure comprises a feeding port, and an adjustment mechanism is disposed between the device block and the feeding port, wherein the adjustment mechanism comprises:

[0008] Several filling blocks and connecting blocks, wherein the connecting block is fixedly connected to the feeding port, and the connecting block and the several filling blocks are all slidably connected to the side of the equipment block away from the glass substrate furnace, and the connecting block and the filling block are all provided with through grooves at the positions where they fit the equipment block;

[0009] Two sealing blocks are rotatably connected to the equipment block, and the side of the sealing block close to the equipment block is in contact with the connecting block and the filling block. The two sealing blocks are symmetrically arranged on the surface of the equipment block. A plurality of penetrating rods are fixedly connected to the surface of the sealing block. A plurality of clamping grooves are opened on the surface of the equipment block. The penetrating rods are adapted to the penetrating grooves and the clamping grooves.

[0010] Optionally, a clamping rod is rotatably connected to the surface of the sealing block, a rotation groove is opened on the surface of the equipment block, and the clamping rod is adapted to the rotation groove.

[0011] Optionally, the feeding structure further includes a slope block and a bottom trough block, the cross-sections of the slope block and the bottom trough block are both right-angled triangles, the two right-angled sides of the bottom trough block are fixedly connected to the inside of the glass substrate furnace, and the bottom surface of the slope block is fitted with and fixedly connected to the bottom trough block.

[0012] Optionally, a rotating block is rotatably connected to a side of the inclined surface block away from the bottom groove block, and an extension block is slidably connected to the surface of the rotating block.

[0013] Optionally, a cylinder is rotatably connected between the extension block and the inclined block, and an arc block is fixedly connected to a side of the extension block away from the rotating block.

[0014] Optionally, a round rod is fixedly connected to one side of the connecting block close to the arc-shaped block, an arc-shaped groove is opened on the surface of the round rod, and the arc-shaped block is adapted to the arc-shaped groove.

[0015] Compared with the prior art, the beneficial effects of the present invention are as follows: the position of the feeding port on the surface of the glass substrate kiln is changed to a larger-sized equipment block, and the position of the feeding port is fixed by the equipment block, thereby providing more options for the position of the feeding port without disassembling the glass substrate kiln, and a sliding connecting block and a filling block are arranged inside the equipment block, so that the position of the feeding port is fixed inside the equipment block, and the gap between the connecting block and the equipment block is further filled by the filling block, to ensure that a large amount of heat is not dissipated at this position when the kiln port is in use, affecting the subsequent glass substrate production; when the sliding connecting block and the equipment block require the position of the feeding port to be changed, the position of the connecting block can be changed by sliding, and the feeding port can be replaced by sliding and recombining multiple structures, which makes the operation simpler and faster. BRIEF DESCRIPTION OF THE DRAWINGS

[0016] Figure 1 It is a structural stereogram of the utility model;

[0017] Figure 2 This is a sectional view of the three-dimensional structure of the ramp block of the present invention;

[0018] Figure 3 This is a sectional view of the three-dimensional structure of the extension block of the present invention;

[0019] Figure 4 This is a sectional view of the three-dimensional structure of the cylinder of the present utility model;

[0020] Figure 5 For the utility model Figure 2 A magnified view of the local structure at point A;

[0021] Figure 6 For the utility model Figure 3 A magnified view of the local structure at point B in the middle;

[0022] Figure 7 For the utility model Figure 4 A magnified view of the local structure at point C in the middle;

[0023] Figure 8 For the utility model Figure 7 A magnified view of the local structure at point D in the middle.

[0024] In the figure: 1. Equipment block; 2. Glass substrate furnace;

[0025] 31. Filling block; 32. Connecting block; 33. Through groove; 34. Sealing block; 35. Through rod; 36. Clamping groove;

[0026] 41. Feeding port; 42. Inclined block; 49. Bottom groove block; 43. Rotating block; 44. Extension block; 45. Cylinder; 46. Arc block; 47. Round rod; 48. Arc groove;

[0027] 51. Clamping rod; 52. Rotating slot. DETAILED DESCRIPTION

[0028] The following will clearly and completely describe the technical solutions of the present invention in conjunction with the embodiments. Obviously, the embodiments described are only a part of the embodiments of the present invention, not all of them. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without making creative efforts are within the scope of protection of the present invention.

[0029] like Figure 1-8 As shown, a glass substrate furnace assembled feeding port structure includes an equipment block 1 and a feeding structure, wherein the equipment block 1 is fixedly arranged inside the glass substrate furnace 2;

[0030] The equipment block 1 and the glass substrate furnace 2 are fixed by means of concrete, mortar or bolts, and an expansion joint is provided between the equipment block 1 and the glass substrate furnace 2;

[0031] The feeding structure includes a feeding port 41. An adjustment mechanism is provided between the equipment block 1 and the feeding port 41. The adjustment mechanism includes:

[0032] A plurality of filling blocks 31 , each of which is slidably connected to a side of the equipment block 1 away from the glass substrate furnace 2 ;

[0033] A connecting block 32 is fixedly connected to the feeding port 41 and is slidably connected to the side of the equipment block 1 away from the glass substrate furnace 2. A through groove 33 is formed on the surfaces of the connecting block 32 and the filling block 31 at the position where the surfaces of the equipment block 1 are in contact.

[0034] Two sealing blocks 34, each of which is rotatably connected to the device block 1, and the side of the sealing block 34 close to the device block 1 is in contact with the connecting block 32 and the filling block 31. The two sealing blocks 34 are symmetrically arranged on the surface of the device block 1. A plurality of through rods 35 are fixedly connected to the surface of the sealing block 34. A plurality of engaging grooves 36 are opened on the surface of the device block 1. The through rods 35 are adapted to the through grooves 33 and the engaging grooves 36;

[0035] The filling block 31 and the connecting block 32 are both slidably mounted on the surface of the equipment block 1. When in use, they can be slidably assembled on the surface of the equipment block 1 as needed, and the position of the connecting block 32 inside the equipment block 1 can be flexibly and autonomously adjusted, thereby achieving the purpose of flexibly adjusting the feeding port 41. The surface of the equipment block 1 is then filled with the filling block 31, ensuring that only the feeding port 41 is not present in the glass substrate furnace 2, thereby preventing a large amount of heat loss inside the glass substrate furnace 2.

[0036] In the assembled feeding port structure of the glass substrate furnace, in actual application, the position of the feeding port 41 provided on the surface of the glass substrate furnace 2 is changed to a larger-sized equipment block 1. The position of the feeding port 41 is fixed by the equipment block 1, thereby providing more options for the position of the feeding port 41 without disassembling the glass substrate furnace 2. A sliding connecting block 32 and a filling block 31 are provided inside the equipment block 1 to fix the position of the feeding port 41 inside the equipment block 1, and the gap between the connecting block 32 and the equipment block 1 is further filled by the filling block 31, thereby ensuring that a large amount of heat is not dissipated at this position when the furnace port is in use, thereby affecting the subsequent glass substrate production. When the sliding connecting block 32 and the equipment block 1 require to change the position of the feeding port, the position of the connecting block 32 can be changed by sliding. The feeding port can be replaced by sliding and recombining multiple structures, which makes the operation simpler and faster.

[0037] In some specific embodiments, the surface of the sealing block 34 is rotatably connected to a clamping rod 51, and the clamping rod 51 is in an I-shaped shape. The surface of the equipment block 1 is provided with a rotation groove 52, and the rotation groove 52 includes a rectangular groove and a cylindrical groove. The cylindrical groove is closer to the glass substrate furnace 2, and the clamping rod 51 is adapted to the rotation groove 52.

[0038] When the entirety of the clamping rod 51 is located in the same vertical plane, it can be inserted into the rotating groove 52. Then, the clamping rod 51 is rotated to make the entirety of the clamping rod 51 located in the same horizontal plane. At this time, the side of the clamping rod 51 close to the glass substrate furnace 2 is clamped into the cylindrical groove, restricting the clamping rod 51 from moving outside the equipment block 1, thereby achieving fixed position of the sealing block 34 and the equipment block 1.

[0039] In some specific embodiments, the feeding structure further includes an inclined surface block 42 and a bottom groove block 49. The cross sections of the inclined surface block 42 and the bottom groove block 49 are both right-angled triangles. One side of the two right-angled sides of the bottom groove block 49 is fixedly connected to the interior of the glass substrate furnace 2. The bottom surface of the inclined surface block 42 is fixedly connected to the bottom groove block 49.

[0040] In a further embodiment, a rotating block 43 is rotatably connected to the side of the inclined plane block 42 away from the bottom groove block 49, an extension block 44 is slidably connected to the surface of the rotation block 43, a cylinder 45 is rotatably connected between the extension block 44 and the inclined plane block 42, an arc block 46 is fixedly connected to the side of the extension block 44 away from the rotation block 43, a round rod 47 is fixedly connected to the side of the connecting block 32 close to the arc block 46, an arc groove 48 is opened on the surface of the round rod 47, and the arc block 46 is adapted to the arc groove 48;

[0041] A rotating block 43 is provided on the side of the inclined block 42 away from the bottom groove block 49, and a sliding extension block 44 is provided between the surface of the rotating block 43 and the connecting block 32, so that the rotating block 43 and the extension block 44 form an inclination below the feed port, guiding the material placed in the feed port to slide down, thereby preventing all the material from piling up in one place, and a cylinder 45 is provided between the inclined block 42 and the extension block 44, and the position of the extension block 44 can be changed by controlling the cylinder 45, so that when the position of the feed port is changed, the angle of the extension block 44 can be quickly changed according to the position of the round rod 47, thereby ensuring the connection between the extension block 44 and the connecting block 32 and preventing the material from falling between the two;

[0042] The working principle of the present invention is as follows: first, the equipment block 1 is fixed to the designated position of the glass substrate furnace 2, then the latching rod 51 is rotated and then the latching rod 51 is pulled away from the equipment block 1. The pulling of the latching rod 51 causes the sealing block 34 to rotate, and then the penetrating rod 35 is disengaged from the latching groove 36. Then, the filling block 31 and the connecting block 32 are inserted into the interior of the equipment block 1 so that the filling block 31 and the connecting block 32 completely fill the equipment block 1. The connecting block 32 is placed between the filling blocks 31, and the feeding port 41 on the surface of the connecting block 32 is ensured to be in the appropriate position. Then, the sealing block 34 is reset so that the penetrating rod 35 passes through the penetrating groove 33 and is inserted into the latching groove 36. The latching rod 51 is reset to fix the position of the sealing rod. Then, the inclined block 42 and the bottom groove block 49 are installed inside the glass substrate furnace 2. Then, the cylinder 45 is started so that the arc block 46 at one end of the extension rod can be inserted into the arc groove 48 on the surface of the round rod 47. Thus, the installation of the feeding structure and the equipment block 1 is completed.

[0043] The above embodiments are only used to illustrate the technical method of the present invention and are not intended to limit the present invention. Although the present invention has been described in detail with reference to the preferred embodiments, those skilled in the art should understand that the technical method of the present invention may be modified or replaced by equivalents without departing from the spirit and scope of the technical method of the present invention.

Claims

1. A glass substrate furnace assembled feeding port structure, characterized in that: The invention comprises an equipment block (1) and a feeding structure, wherein the equipment block (1) is fixedly arranged inside a glass substrate furnace (2); the feeding structure comprises a feeding port (41), and an adjustment mechanism is arranged between the equipment block (1) and the feeding port (41), wherein the adjustment mechanism comprises: A plurality of filling blocks (31) and connecting blocks (32), wherein the connecting blocks (32) are fixedly connected to the feeding port (41), the connecting blocks (32) and the plurality of filling blocks (31) are all slidably connected to a side of the equipment block (1) away from the glass substrate furnace (2), and a through groove (33) is provided at the position where the connecting blocks (32) and the filling blocks (31) are attached to the equipment block (1); Two sealing blocks (34) are rotatably connected to the equipment block (1), and the side of the sealing block (34) close to the equipment block (1) is in contact with the connecting block (32) and the filling block (31). The two sealing blocks (34) are symmetrically arranged on the surface of the equipment block (1). A plurality of through rods (35) are fixedly connected to the surface of the sealing block (34). A plurality of locking grooves (36) are opened on the surface of the equipment block (1), and the through rods (35) are adapted to the through grooves (33) and the locking grooves (36).

2. The assembled feeding port structure of a glass substrate furnace according to claim 1, characterized in that: The surface of the sealing block (34) is rotatably connected with a clamping rod (51), the surface of the equipment block (1) is provided with a rotation groove (52), and the clamping rod (51) is adapted to the rotation groove (52).

3. The assembled feeding port structure of a glass substrate furnace according to claim 1, characterized in that: The feeding structure further comprises a slope block (42) and a bottom groove block (49), wherein the cross sections of the slope block (42) and the bottom groove block (49) are both right-angled triangles, and the two right-angled sides of the bottom groove block (49) are fixedly connected to the interior of the glass substrate furnace (2), and the bottom surface of the slope block (42) is in contact with and fixedly connected to the bottom groove block (49).

4. The assembled feeding port structure for a glass substrate furnace according to claim 3, characterized in that: A rotating block (43) is rotatably connected to a side of the inclined surface block (42) away from the bottom groove block (49), and an extension block (44) is slidably connected to the surface of the rotating block (43).

5. The assembled feeding port structure for a glass substrate furnace according to claim 4, characterized in that: A cylinder (45) is rotatably connected between the extension block (44) and the inclined surface block (42), and an arc block (46) is fixedly connected to the side of the extension block (44) away from the rotating block (43).

6. The assembled feeding port structure of a glass substrate furnace according to claim 5, characterized in that: A round rod (47) is fixedly connected to one side of the connecting block (32) close to the arc block (46), and an arc groove (48) is provided on the surface of the round rod (47), and the arc block (46) is adapted to the arc groove (48).

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