Glass material block forming equipment

Abstract

The utility model relates to the field of glass material processing, in particular to glass material block forming equipment which comprises a feed chute for guiding molten glass fluid, the transfer assembly comprises a synchronous rotating shaft, a first transfer gear and a second transfer gear, the first transfer gear and the second transfer gear are both arranged on the synchronous rotating shaft, and the first transfer gear and the second transfer gear are close to one side of the lower end of the feeding groove; the adjusting and pressing assembly comprises a transmission part, a moving part and a pressing grooved wheel part, the transmission part controls the moving part to move, and the pressing grooved wheel part is tangent to the first transfer gear and the second transfer gear; the cooling assembly is arranged above the pressing grooved wheel part; and the discharge chute is used for guiding the pressed and cut glass fluid. Pressing and cutting are integrated on the equipment, the size of the equipment is reduced, meanwhile, the equipment is simple in mechanical structure, later maintenance of personnel is facilitated, and the maintenance intensity of the personnel is relieved.

Description

Technical Field

[0001] The utility model relates to the field of glass material processing, in particular to a glass block forming device. Background Art

[0002] Glass blocks can be used as raw materials for a variety of glass products, such as glass plates, glass fiber wool, etc. The existing production process of glass blocks is as follows: quartz sand, soda ash, feldspar and dolomite are weighed and mixed in advance, and the mixed raw materials are placed in a special firing device for firing. After firing, the raw materials become molten glass fluid, and the molten glass fluid is then pressed by a pressing device. The molten glass fluid after pressing becomes a specific shape, and the molten glass fluid of a specific shape is then cut into a cutting device to cut out glass blocks of a specific size. The cut glass blocks of a specific size are finally cooled to produce formed glass blocks.

[0003] There are many devices used in the existing glass block process. Among them, the cylinder or hydraulic cylinder in the pressing equipment is used to operate the pressing plate, and the cylinder or hydraulic cylinder in the cutting equipment is used to control the movement of the cutting arm. Among them, the cylinder or hydraulic cylinder is mostly large or medium-sized. The large or medium-sized cylinder or hydraulic cylinder makes the equipment larger, thereby increasing the floor area of ​​the production site, and at the same time increases the maintenance time of on-site personnel, increases the maintenance difficulty, and increases the maintenance intensity of personnel. Utility Model Content

[0004] The utility model provides a glass block forming device, which integrates pressing and cutting on the device, thereby reducing the volume of the device. At the same time, the device has a simple mechanical structure, is convenient for personnel to maintain later, and reduces the maintenance intensity of personnel.

[0005] To achieve the above-mentioned purpose, the present invention provides a glass block forming device, comprising:

[0006] A feed trough for guiding molten glass fluid, wherein the feed trough is arranged obliquely;

[0007] A transfer assembly, the transfer assembly comprising a synchronous rotating shaft, a first transfer gear and a second transfer gear, the first transfer gear and the second transfer gear being both disposed on the synchronous rotating shaft, the first transfer gear and the second transfer gear being close to one side of the lower end of the feed trough;

[0008] An adjusting and pressing assembly is provided, wherein the adjusting and pressing assembly includes a transmission portion, a moving portion and a pressing groove wheel portion, wherein the transmission portion controls the movement of the moving portion, the pressing groove wheel portion is arranged on the other side of the first transfer gear and the second transfer gear away from the feed trough, the pressing groove wheel portion includes a first pressing groove wheel, a second pressing groove wheel and a fixed seat, the first pressing groove wheel and the second pressing groove wheel are respectively arranged on a single fixed seat, the fixed seat is arranged on the moving portion, and the first pressing groove wheel and the second pressing groove wheel are respectively tangent to the first transfer gear and the second transfer gear;

[0009] A cooling assembly, the cooling assembly being arranged on the moving portion, the cooling assembly comprising a cooling pipe and a cooling tank, the cooling pipe being connected to the cooling tank, and a water outlet of the cooling pipe being arranged above the first pressing groove wheel and the second pressing groove wheel;

[0010] A discharge chute for guiding the glass fluid after compression and cutting, the discharge chute is obliquely arranged on the other side of the first transfer gear and the second transfer gear, and the discharge chute is located below the first pressing groove wheel and the second pressing groove wheel.

[0011] Furthermore, the movable part includes a fixing part, a connecting groove, a connecting shaft and a connecting shaft hole. The fixing part is provided with a transmission hole, and the transmission hole cooperates with the transmission part. The connecting groove is opened at the top of the fixing part, and the cooling assembly is arranged at the top of the fixing part close to the connecting groove. The fixing part is provided with the connecting shaft hole, and the connecting shaft hole passes through the connecting groove, and the connecting shaft passes through the connecting shaft hole.

[0012] Furthermore, the fixed seat includes a steering seat and a connecting seat, one end of the steering seat is provided with a reamed hole, the other end of the steering seat is connected to one end of the connecting seat, the other end of the connecting seat is respectively provided with the first clamping groove wheel and the second clamping groove wheel, the steering seat is arranged in the connecting groove, and the connecting shaft passes through the reamed hole and the connecting shaft hole at the same time, so that the steering seat is hinged on the connecting shaft.

[0013] Furthermore, the glass block forming device further comprises a locking cover plate, which covers the top of the connecting groove, is fixed to the fixing member by bolts, and locks the turning seat.

[0014] Furthermore, the glass block forming equipment also includes a pre-pressing assembly, which is arranged directly above the first transfer gear and the second transfer gear. The pre-pressing assembly includes a fixed frame, an auxiliary support arm, a third pressing groove wheel and a fourth pressing groove wheel. The auxiliary support arm includes a first support arm and a second support arm. One end of the first support arm is hinged to the fixed frame, and the other end of the first support arm is hinged to one end of the second support arm. The other end of the second support arm is provided with the third pressing groove wheel and the fourth pressing groove wheel. The first support arm is provided with a receiving groove for placing the second support arm, and a handle is provided on the other end of the first support arm.

[0015] Furthermore, the glass block forming equipment also includes a locking assembly, which includes a first locking block, a second locking block, a third locking block and a locking column. The first locking block, the second locking block and the third locking block are all provided with locking holes. The first locking block is set on the fixed frame, the second locking block is set on the first support arm, and the third locking block is set on the second support arm. The locking column is slidably set in the locking holes of the first locking block, the locking holes of the second locking block and the locking holes of the third locking block.

[0016] Furthermore, the glass block forming equipment also includes a water circulation component, which includes a water trough, a water pump, a first water pipeline, a second water pipeline and a cooling nozzle. The water trough is located directly below the first transfer gear and the second transfer gear. There are multiple water pumps, and the water pumps are respectively arranged on both sides of the water trough. One end of the first water pipeline is connected to the cooling component, and the other end of the first water pipeline is connected to the water outlet of the water pump. One end of the second water pipeline is connected to the cooling nozzle, and the other end of the second water pipeline is connected to the water outlet of the water pump, and the water inlets of the water pumps are both connected to the water trough. The cooling nozzle is arranged below the feed trough close to the first transfer gear and the second transfer gear.

[0017] Compared with the prior art, according to a glass block forming device of an embodiment of the present invention, the molten glass fluid is fed into the transfer assembly from the feed trough, and then the molten glass fluid on the transfer assembly is pressed by adjusting the clamping assembly and cooperating with the transfer assembly, wherein a first transfer gear and a second transfer gear are arranged in the transfer assembly, and the first transfer gear and the second transfer gear can not only transfer the molten glass fluid, but also the gear teeth on the first transfer gear and the second transfer gear and the adjusting clamping assembly realize the cutting of the molten glass fluid during the pressing, and the cut glass block has the same size as the gap between the gear teeth, thereby reducing the footprint of the overall equipment, and at the same time, the structure is simple, which is convenient for personnel to maintain and repair in the later stage. BRIEF DESCRIPTION OF THE DRAWINGS

[0018] Figure 1 This is a schematic diagram of the overall structure of a glass block forming device of the present invention;

[0019] Figure 2 This is a schematic diagram of the overall structure of a single moving part of a glass block forming device of the present invention;

[0020] Figure 3 This is a schematic diagram of the overall structure of a single pre-pressing assembly of a glass block forming device according to the present invention;

[0021] Figure 4 This is a top view schematic diagram of a single pre-pressing assembly of a glass block forming device according to the present invention;

[0022] Figure 5 for Figure 4 A partial magnified view of area A; and

[0023] Figure 6 This is a cross-sectional view of a finished corrugated glass strip pressed by a glass block forming device of the present invention.

[0024] Reference numerals:

[0025] 1000. Feed chute;

[0026] 2000. Transfer assembly; 2100. Synchronous shaft; 2200. First transfer gear; 2300. Second transfer gear;

[0027] 3100. Transmission unit; 3200. Moving unit; 3210. Fixing member; 3220. Connecting groove; 3230. Connecting shaft; 3250. Transmission hole; 3300. Compression sheave unit; 3310. First compression sheave; 3320. Second compression sheave; 3330. Fixing seat;

[0028] 4100. Cooling tank; 4200. Cooling pipe;

[0029] 5000. Discharge chute;

[0030] 6000. Lock the cover;

[0031] 7000. Pre-pressing assembly; 7100. Fixed frame; 7210. First arm; 7211. Storage slot; 7220. Second arm; 7300. Third pressing groove wheel; 7400. Fourth pressing groove wheel; 7500. Handle;

[0032] 8100. First locking block; 8110. Card slot; 8200. Second locking block; 8300. Third locking block; 8400. Locking post; 8410. Card post;

[0033] 9100. Water sink; 9200. First water pipeline; 9300. Second water pipeline; 9400. Cooling nozzle. DETAILED DESCRIPTION

[0034] In order to provide a further understanding of the purpose, structure, features, and functions of the present invention, the present invention is described in detail below with reference to the embodiments.

[0035] like Figure 1 As shown, a glass block forming device according to an embodiment of the present invention includes:

[0036] A feed chute 1000, a transfer assembly 2000, an adjustment and pressing assembly, a cooling assembly, and a discharge chute 5000 for guiding the molten glass flow;

[0037] The feed chute 1000 is tilted, a transfer assembly 2000 is provided on one side of the lower end of the feed chute 1000, an adjustment and compaction assembly is provided on the other side of the transfer assembly 2000, a cooling assembly is provided above the adjustment and compaction assembly, and a discharge chute 5000 is tilted on the other side of the transfer assembly 2000, and the discharge chute 5000 is located below the cooling assembly;

[0038] The transfer assembly 2000 includes a synchronous rotating shaft 2100, a first transfer gear 2200 and a second transfer gear 2300. The first transfer gear 2200 and the second transfer gear 2300 are both arranged on the synchronous rotating shaft 2100, and the first transfer gear 2200 and the second transfer gear 2300 are close to the lower end of the feed trough 1000.

[0039] The adjusting and pressing assembly includes a transmission part 3100, a moving part 3200 and a pressing groove wheel part 3300. The transmission part 3100 controls the movement of the moving part 3200. The pressing groove wheel part 3300 is arranged on the other side of the first transfer gear 2200 and the second transfer gear 2300 away from the feed trough 1000. The pressing groove wheel part 3300 includes a first pressing groove wheel 3310, a second pressing groove wheel 3320 and a fixed seat 3330. The first pressing groove wheel 3310 and the second pressing groove wheel 3320 are respectively arranged on a single fixed seat 3330. The fixed seat 3330 is arranged on the moving part 3200. By moving the moving part 3200, the first pressing groove wheel 3310 and the second pressing groove wheel 3320 are respectively tangent to the first transfer gear 2200 and the second transfer gear 2300.

[0040] The cooling assembly includes a cooling pipe 4200 and a cooling tank 4100. The cooling pipe 4200 is connected to the cooling tank 4100. The cooling tank 4100 is disposed on the movable portion 3200. The water outlet of the cooling pipe 4200 is disposed above the first and second compression sheaves 3310 and 3320.

[0041] The discharge chute 5000 is tilted and arranged on the other side of the first transfer gear 2200 and the second transfer gear 2300 , and the discharge chute 5000 is located directly below the first pressing groove wheel 3310 and the second pressing groove wheel 3320 ;

[0042] Among them, the user uses the glass block forming device of the present invention to process the molten glass fluid. The molten glass fluid enters the feed trough 1000. Due to the inclination of the feed trough 1000, the molten glass fluid flows to the first transfer gear 2200 and the second transfer gear 2300 by gravity. The molten glass fluid reaches the gear teeth of the first transfer gear 2200 and the second transfer gear 2300. At this time, the synchronous rotating shaft 2100 is rotated to make the first transfer gear 2200 and the second transfer gear 2300 rotate counterclockwise, and the molten glass The fluid moves as the first transfer gear 2200 and the second transfer gear 2300 rotate. At the same time, the user controls and adjusts the pressing assembly so that the first pressing groove wheel 3310 and the second pressing groove wheel 3320 press against the first transfer gear 2200 and the second transfer gear 2300, and adjusts the distance between the grooves on the first pressing groove wheel 3310 and the second pressing groove wheel 3320 and the gear teeth on the first transfer gear 2200 and the second transfer gear 2300. The molten glass fluid is pressed into the first transfer gear 2200 and the second transfer gear 2300 through the first pressing groove wheel 3310 and the second pressing groove wheel 3320. The molten glass fluid is pressed in the gap between the teeth of the first and second transfer gears 200 and 2300, thereby forming a corrugated glass strip. The protruding part of the corrugated glass strip is a smaller glass block. The connection between adjacent glass blocks is thin, which is convenient for the user to manually break it after complete cooling, thereby achieving the purpose of cutting. No special cutting equipment is required. Finally, the corrugated glass strip completed by pressing enters the next cooling process through the discharge chute 5000. The molten glass fluid is in a high temperature state. The first pressing groove wheel 3310 and the second pressing groove wheel 3310 are pressed. 320 needs to continuously suppress the molten glass fluid, so a cooling component is set to make the cooling water in the cooling tank 4100 flow to the first clamping groove wheel 3310 and the second clamping groove wheel 3320 through the water outlet of the cooling pipe 4200, thereby reducing the temperature of the first clamping groove wheel 3310 and the second clamping groove wheel 3320 and improving the service life of the first clamping groove wheel 3310 and the second clamping groove wheel 3320. At the same time, the cooling component moves with the moving part 3200 to ensure that the cooling pipe 4200 is always located above the first clamping groove wheel 3310 and the second clamping groove wheel 3320.

[0043] Furthermore, as shown in the figure, the movable part 3200 includes a fixed part 3210, a connecting slot 3220, a connecting shaft 3230, and a connecting shaft hole. The fixed part 3210 is provided with a transmission hole 3250, which cooperates with the transmission part 3100, and the connecting slot 3220 is provided at the top of the fixed part 3210. The cooling assembly is arranged on the fixed part 3210 near the connecting slot 3220. The fixed part 3210 is provided with a connecting shaft hole, which extends through the connecting slot 3220, and the connecting shaft 3230 passes through the connecting shaft hole. The transmission part 3100 uses a screw motor, wherein the transmission hole 3250 is provided with a thread that cooperates with the screw, thereby driving the fixed part 3210 to move, facilitating the adjustment of the position of the movable part 3200, and the cooling assembly moves with the movable part 3200.

[0044] Furthermore, as shown in the figure, the fixed seat 3330 includes a steering seat and a connecting seat. One end of the steering seat is provided with a reaming hole, and the other end of the steering seat is connected to one end of the connecting seat. The other end of the connecting seat is respectively provided with a first pressing groove wheel 3310 and a second pressing groove wheel 3320. The steering seat is disposed within the connecting groove 3220, and the connecting shaft 3230 passes through both the reaming hole and the connecting shaft hole, so that the steering seat is hinged to the connecting shaft 3230. The steering seat is hingedly mounted within the connecting groove 3220, which facilitates the later replacement of the first pressing groove wheel 3310 and the second pressing groove wheel 3320 in the event of a failure. This eliminates the need to disassemble the integral fixing member 3210, thereby reducing the difficulty of maintenance and alleviating the labor intensity of personnel.

[0045] As shown in the figure, the glass block forming apparatus further includes a locking cover plate 6000, which covers the connection groove 3220 and is bolted to the fixing member 3210. The locking cover plate 6000 locks the steering seat. The locking cover plate 6000 is used to limit the rotation of the steering seat, ensuring the stability of the first and second compression groove wheels 3310 and 3320 during operation.

[0046] Furthermore, as shown in the figure, the glass block forming equipment also includes a pre-pressing component 7000, which is arranged directly above the first transfer gear 2200 and the second transfer gear 2300. The pre-pressing component 7000 includes a fixed frame 7100, an auxiliary support arm, a third pressing groove wheel 7300 and a fourth pressing groove wheel 7400. The auxiliary support arm includes a first support arm 7210 and a second support arm 7220. One end of the first support arm 7210 is hinged to the fixed frame 7100, and the other end of the first support arm 7210 is hinged to one end of the second support arm 7220. The other end of the second support arm 7220 is provided with a third pressing groove wheel 7300 and a fourth pressing groove wheel 7400, and the first support arm 7210 is provided with a receiving groove 7211 for placing the second support arm 7220, and the other end of the first arm 7210 is provided with a handle 7500. When the molten glass fluid is transferred through the first transfer gear 2200 and the second transfer gear 2300, vibration and speed inertia will occur when the first transfer gear 2200 and the second transfer gear 2300 rotate, which makes the molten glass fluid easily deviate when moving on the first transfer gear 2200 and the second transfer gear 2300. The deviated molten glass fluid will fall out of the pressing area, and manual correction is required at this time, thereby increasing the labor intensity of the personnel. A pre-pressing component 7000 is now provided so that the molten glass fluid can be simply pressed by the pre-pressing component 7000 before being pressed, while ensuring that the molten glass The fluid is always located on the gear teeth of the first transfer gear 2200 and the second transfer gear 2300. When the pre-pressing assembly 7000 is working, its first arm 7210 and the second arm 7220 sink according to gravity. At this time, the first arm 7210 and the second arm 7220 are in a zigzag shape. At this time, the grooves of the third pressing groove wheel 7300 and the fourth pressing groove wheel 7400 at the other end of the second arm 7210 are tangent to the gear teeth of the first transfer gear 2200 and the second transfer gear 2300. The third pressing groove wheel 7300 and the fourth pressing groove wheel 7400 press the molten glass fluid located on the first transfer gear 2200 and the second transfer gear 2300 by gravity.

[0047] Further, as shown in the figure, the glass block forming equipment also includes a locking assembly, which includes a first locking block 8100, a second locking block 8200 and a locking column 8400. The first locking block 8100, the second locking block 8200 and the third locking block 8300 are all provided with locking holes. The first locking block 8100 is set on the fixed frame 7100, the second locking block 8200 is set on the first support arm 7210, and the third locking block 8300 is set on the second support arm 7220. The locking column 8400 is slidably set in the locking hole of the first locking block 8100, the locking hole of the second locking block 8200 and the locking hole of the third locking block 8300. By setting a locking assembly to fix the pre-pressing assembly 7000, the first arm 7210 and the second arm 7220 are restricted. When working, the user can lower the pre-pressing assembly 7000 by removing the locking column 8400. After completing the work, the user can pull up the first arm 7210 by pulling the handle 7500. After ensuring that the locking hole of the second locking block 8200 is aligned with the locking hole of the first locking block 8100, the locking column 8400 is first inserted into the second locking block 8200. 00 is aligned with the locking hole of the first locking block 8100, thereby fixing the first arm 7210. After the first arm 7210 is fixed, the user pulls up the second arm 7220 so that the locking hole on the third locking block 8300 on the second arm 7220 is aligned with the locking hole on the second locking block 8200. At this time, the locking column 8400 is pushed into the locking hole on the third locking block 8300, thereby achieving locking of the first arm 7210 and the second arm 7220.

[0048] Preferably, as shown in the figure, a clamping column 8410 is provided at one end of the locking column 8400, and a clamping slot 8110 is provided on the first locking block 8100, and the clamping slot 8110 is connected to the locking hole of the first locking block 8100. After the locking column 8400 is inserted into the locking holes of the first locking block 8100, the second locking block 8200 and the third locking block 8300, the clamping column 8410 of the locking column 8400 located in the first locking block 8100 is rotated into the clamping slot 8110, thereby further locking the auxiliary support arm to the fixed frame 7100.

[0049] Furthermore, as shown in the figure, the glass block forming equipment also includes a water circulation component, which includes a water tank 9100, a water pump, a first water pipeline 9200, a second water pipeline 9300 and a cooling nozzle 9400. The water tank 9100 is located directly below the first transfer gear 2200 and the second transfer gear 2300. There are multiple water pumps, which are respectively arranged on both sides of the water tank 9100. One end of the first water pipeline 9200 is connected to the cooling component, and the other end of the first water pipeline 9200 is connected to the water outlet of the water pump. One end of the second water pipeline 9300 is connected to the cooling nozzle 9400, and the other end of the second water pipeline 9300 is connected to the water outlet of the water pump. The water inlets of the water pumps are both connected to the water tank 9100, and the cooling nozzle 9400 is arranged below the feed trough 1000 close to the first transfer gear 2200 and the second transfer gear 2300. The first transfer gear 2200 and the second transfer gear 2300 are used to transfer high-temperature molten glass fluid. The molten glass fluid often contacts the gear teeth of the first transfer gear 2200 and the second transfer gear 2300. The high temperature can easily change the shape of the gear teeth, which is not conducive to the subsequent pressing of the first pressing groove wheel 3310 and the second pressing groove wheel 3320, making the shape of the corrugated glass strips after pressing irregular. A water circulation component is now set to spray water to cool the first transfer gear 2200, the second transfer gear 2300, the first pressing groove wheel 3310 and the second pressing groove wheel 3320 in a high-temperature working state, so as to ensure the first transfer gear 2200, the second transfer gear 2300, the first pressing groove wheel 3310 and the second pressing groove wheel 3320. Service life, the cooling water in the water tank 9100 is pumped into the first water pipeline 9200 and the second water pipeline 9300 through the water pump, wherein the first water pipeline 9200 sends the pressurized cooling water into the cooling tank 4100. When working, the cooling tank 4100 is turned on to send the cooling water in the cooling tank 4100 to the first pressing groove wheel 3310 and the second pressing groove wheel 3320 through the cooling pipe 4200, thereby reducing the temperature of the first pressing groove wheel 3310 and the second pressing groove wheel 3320, and the cooling water entering the second water pipeline 9300 is sprayed onto the teeth of the first transfer gear 2200 and the second transfer gear 2300 through the cooling nozzle 9400, thereby reducing the temperature on the teeth, ensuring the hardness of the teeth, facilitating the later pressing and cutting, and improving the quality of the finished product.

[0050] In the description of the present invention, it should be understood that the terms "longitudinal", "transverse", "length", "width", "thickness", "up", "down", "front", "back", "left", "right", "vertical", "horizontal", "top", "bottom", "inside" and "outside" orientations or positional relationships are only for the convenience of describing the present invention and simplifying the description, and do not indicate or imply that the device or element referred to must have a specific orientation, be constructed and operate in a specific orientation, and therefore cannot be understood as a limitation on the present invention.

[0051] The present invention has been described with reference to the above embodiments. However, these embodiments are merely exemplary embodiments of the present invention. It should be noted that the disclosed embodiments do not limit the scope of the present invention. On the contrary, modifications and improvements made without departing from the spirit and scope of the present invention are within the scope of patent protection of the present invention.

Claims

1. A glass block forming device, characterized in that: include: A feed trough for guiding molten glass fluid, wherein the feed trough is arranged obliquely; A transfer assembly, the transfer assembly comprising a synchronous rotating shaft, a first transfer gear and a second transfer gear, the first transfer gear and the second transfer gear being both disposed on the synchronous rotating shaft, the first transfer gear and the second transfer gear being close to one side of the lower end of the feed trough; An adjusting and pressing assembly is provided, wherein the adjusting and pressing assembly includes a transmission portion, a moving portion and a pressing groove wheel portion, wherein the transmission portion controls the movement of the moving portion, the pressing groove wheel portion is arranged on the other side of the first transfer gear and the second transfer gear away from the feed trough, the pressing groove wheel portion includes a first pressing groove wheel, a second pressing groove wheel and a fixed seat, the first pressing groove wheel and the second pressing groove wheel are respectively arranged on a single fixed seat, the fixed seat is arranged on the moving portion, and the first pressing groove wheel and the second pressing groove wheel are respectively tangent to the first transfer gear and the second transfer gear; A cooling assembly, the cooling assembly being arranged on the moving portion, the cooling assembly comprising a cooling pipe and a cooling tank, the cooling pipe being connected to the cooling tank, and a water outlet of the cooling pipe being arranged above the first pressing groove wheel and the second pressing groove wheel; A discharge chute for guiding the glass fluid after compression and cutting, the discharge chute is obliquely arranged on the other side of the first transfer gear and the second transfer gear, and the discharge chute is located below the first pressing groove wheel and the second pressing groove wheel.

2. The glass block forming device according to claim 1, wherein: The movable part includes a fixing part, a connecting groove, a connecting shaft and a connecting shaft hole. The fixing part is provided with a transmission hole, and the transmission hole cooperates with the transmission part. The connecting groove is opened at the top of the fixing part, and the cooling assembly is arranged at the top of the fixing part close to the connecting groove. The fixing part is provided with the connecting shaft hole, and the connecting shaft hole passes through the connecting groove, and the connecting shaft passes through the connecting shaft hole.

3. The glass block forming device according to claim 2, wherein: The fixed seat includes a steering seat and a connecting seat, one end of the steering seat is provided with a reaming hole, the other end of the steering seat is connected to one end of the connecting seat, the other end of the connecting seat is respectively provided with the first clamping groove wheel and the second clamping groove wheel, the steering seat is arranged in the connecting groove, and the connecting shaft passes through the reaming hole and the connecting shaft hole at the same time, so that the steering seat is hinged on the connecting shaft.

4. The glass block forming device according to claim 3, wherein: It also includes a locking cover plate, which covers the top of the connecting groove and is fixed to the fixing member by bolts. The locking cover plate locks the steering seat.

5. The glass block forming device according to claim 1, wherein: It also includes a pre-pressing assembly, which is arranged directly above the first transfer gear and the second transfer gear. The pre-pressing assembly includes a fixed frame, an auxiliary support arm, a third pressing groove wheel and a fourth pressing groove wheel. The auxiliary support arm includes a first support arm and a second support arm. One end of the first support arm is hinged to the fixed frame, and the other end of the first support arm is hinged to one end of the second support arm. The other end of the second support arm is provided with the third pressing groove wheel and the fourth pressing groove wheel. The first support arm is provided with a storage groove for placing the second support arm, and a handle is provided on the other end of the first support arm.

6. The glass block forming device according to claim 5, characterized in that: It also includes a locking assembly, which includes a first locking block, a second locking block, a third locking block and a locking column. The first locking block, the second locking block and the third locking block are all provided with locking holes. The first locking block is arranged on the fixed frame, the second locking block is arranged on the first support arm, and the third locking block is arranged on the second support arm. The locking column is slidably arranged in the locking holes of the first locking block, the second locking block and the third locking block.

7. The glass block forming device according to claim 1, wherein: It also includes a water circulation component, which includes a water trough, a water pump, a first water pipeline, a second water pipeline and a cooling nozzle. The water trough is located directly below the first transfer gear and the second transfer gear. There are multiple water pumps, which are respectively arranged on both sides of the water trough. One end of the first water pipeline is connected to the cooling component, and the other end of the first water pipeline is connected to the water outlet of the water pump. One end of the second water pipeline is connected to the cooling nozzle, and the other end of the second water pipeline is connected to the water outlet of the water pump. The water inlets of the water pumps are both connected to the water trough, and the cooling nozzles are arranged below the feed trough close to the first transfer gear and the second transfer gear.

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