A tunnel stacking device for architectural glass production

Abstract

The application discloses a roadway stacking device for building glass production and relates to the technical field of building glass production. The roadway stacking device for building glass production comprises a telescopic rod, a fixed clamping plate is arranged on the side of the telescopic rod, an auxiliary clamping plate driven by an electric rotating rod is rotationally connected to the side of the fixed clamping plate, a stacking box is sleeved on the outer side of the telescopic rod. The roadway stacking device for building glass production is used for placing building glass into the stacking box, starting the electric rotating rod, driving the auxiliary clamping plate to rotate and expand, driving the stress rod to rotate, cooperating with the hydraulic bin one, the connecting rod, the hydraulic bin two, the hydraulic rod, the hydraulic bin three, the hose one, the partition plate, the arc-shaped spring one, the transmission rod, the transmission plate and the spring two, extending the sucking disc first, adsorbing the glass, extruding the sucking disc and the glass, improving the adsorption effect of the sucking disc on the side of the glass and improving the supporting effect of the device on the wider glass.

Description

TECHNICAL FIELD

[0001] The present application relates to the technical field of building glass production, in particular to a roadway stacking device for building glass production. BACKGROUND

[0002] In building glass production, the production process of glass includes cutting, edge grinding, coating, annealing and other links. Glass plates usually have a large area and weight. Therefore, in the production process, how to effectively stack and transport glass products not only ensures production efficiency, but also avoids damaging the glass, which becomes an important technical challenge. The roadway stacking device plays a crucial role in this process. The traditional glass stacking method mainly relies on manual or simple mechanical equipment. These methods not only have low efficiency, but also easily cause scratches or damage to the surface of the glass, especially for large-size, thin-type glass products, which need to be particularly careful during stacking and transporting.

[0003] The existing auxiliary stacking device for building glass production includes a base, a stacking box fixedly connected to the upper end of the base through a support rod, a pair of symmetrical sliding grooves opened on a pair of opposite side walls of the stacking box, a supporting piece slidingly connected in each sliding groove, a pair of fixed plates fixedly connected to the upper end and the lower end of the side wall of the stacking box, a threaded rod rotatably connected between each pair of fixed plates, and a sleeve threadedly connected to the threaded rod.

[0004] The roadway stacking device for building glass production increases the telescopic supporting piece that can move in the vertical direction, places the glass on the supporting piece, moves the glass and the supporting piece downward together, and finally extracts the supporting piece to complete the corresponding stacking operation. However, the device cannot expand the supporting piece when assisting in stacking, and the supporting effect for wider glass is poor. When the supporting piece is extracted, the glass falls from the top of the supporting piece to the bottom, which still has the possibility of damaging the glass. SUMMARY

[0005] To overcome the deficiencies of the prior art, the present application provides a roadway stacking device for building glass production, which solves the problems raised in the background art. To achieve the above purpose, the present application is implemented by the following technical scheme: a roadway stacking device for building glass production, comprising:

[0006] a telescopic rod, the side surface of the telescopic rod is equipped with a fixed clamping plate, and the side surface of the fixed clamping plate is rotatably connected with an auxiliary clamping plate driven by an electric rotating rod;

[0007] a stacking box, the stacking box is sleeved on the outer side of the telescopic rod;

[0008] The inner wall of the fixed clamping plate is equipped with a hydraulic chamber one, one side of the hydraulic chamber one is slidably connected with a force rod one through a piston, the other side of the hydraulic chamber one is slidably connected with a connecting rod through a piston, the inside of the fixed clamping plate is equipped with a hydraulic chamber two, the side of the hydraulic chamber two is slidably connected with a hydraulic rod through a piston, the side of the hydraulic rod is equipped with a suction cup, the force rod one and the suction cup are equipped with a transmission part for transmission, the inside of the fixed clamping plate is equipped with an extraction assembly for extracting gas, and the side of the stacking box is equipped with an auxiliary friction assembly for improving friction. Through the arrangement of the device, the suction cup can be first extended to adsorb the glass, and then the suction cup and the glass are extruded to improve the adsorption effect of the suction cup on the side surface of the glass, thereby improving the supporting effect of the device on the wider glass.

[0009] Preferably, the transmission part comprises a hydraulic chamber three equipped in the inside of the fixed clamping plate, a hose one is equipped between the hydraulic chamber three and the hydraulic chamber one, the inner wall of the hydraulic chamber three is rotatably connected with a partition plate, the side of the partition plate is equipped with an arc-shaped spring one, the side of the hydraulic chamber three is slidably connected with a transmission rod through a piston, the side of the transmission rod is fixedly connected with a transmission plate, and the side of the transmission plate is equipped with a spring two.

[0010] Preferably, the force rod one is located at the side of the auxiliary clamping plate and is in a fixed state with the auxiliary clamping plate.

[0011] Preferably, one end of the arc-shaped spring one away from the partition plate is equipped on the inner wall of the hydraulic chamber three.

[0012] Preferably, the extraction assembly comprises a fixed rod equipped at the top of the hydraulic rod, a rotating block is rotatably connected with the top of the fixed rod, a hinged rod one is fixedly connected with one end of the rotating block, a hinged rod two is fixedly connected with the other end of the rotating block, a gas pressure chamber is fixedly connected in the inside of the hydraulic rod and penetrates through the gas pressure chamber, and an extraction rod is slidably connected with the side of the gas pressure chamber through a piston. Through the arrangement of the extraction assembly, the residual gas between the suction cup and the glass can be extracted into the gas pressure chamber, further improving the adsorption effect of the suction cup on the side surface of the building glass and improving the stability of the device during use.

[0013] Preferably, the hinged rod one is located at the top of the transmission rod and is in a hinged state with the transmission rod.

[0014] Preferably, the extraction rod is located at the side of the hinged rod two and is in a hinged state with the hinged rod two.

[0015] Preferably, the auxiliary friction assembly comprises a hydraulic bin four penetrating the telescopic rod and the fixed clamping plate, the side surface of the hydraulic bin four is slidably connected with a force receiving rod two by arranging a piston, the side surface of the force receiving rod two is equipped with a spring three, the side surface of the stacking box is equipped with a hydraulic bin five, the hydraulic bin five and the hydraulic bin four are equipped with a hose two, and the side surface of the hydraulic bin five is slidably connected with a friction plate by arranging a piston. Through the arrangement of the auxiliary friction assembly, the possibility of the building glass falling by accident in the stacking process is further prevented, and the use of the device is more stable.

[0016] Preferably, the force receiving rod two is located at the side surface of the connecting rod and is in contact with the connecting rod.

[0017] Preferably, the spring three is equipped on the inner wall of the hydraulic bin four away from the one end of the force receiving rod two.

[0018] The present application provides a roadway stacking device for building glass production. It has the following advantages:

[0019] (1) The roadway stacking device for building glass production is used to put the building glass into the stacking box, start the electric rotating rod, drive the auxiliary clamping plate to rotate and expand, drive the force receiving rod one to rotate by the auxiliary clamping plate, and cooperate with the hydraulic bin one, the connecting rod, the hydraulic bin two, the hydraulic rod, the hydraulic bin three, the hose one, the partition plate, the arc spring one, the transmission rod, the transmission plate and the spring two, so that the suction cup is first extended to adsorb the glass, and then the suction cup and the glass are squeezed to improve the adsorption effect of the suction cup on the side surface of the glass, thereby improving the support effect of the device on the wider glass.

[0020] (2) When the transmission rod drives the transmission plate to move to the side close to the suction cup, the suction cup and the glass are connected with the fixed rod, the rotating block, the hinged rod one, the hinged rod two and the extraction rod, so that the residual gas between the suction cup and the glass is extracted into the air pressure bin, the adsorption effect of the suction cup on the side surface of the building glass is further improved, and the stability of the device during use is improved.

[0021] (3) When the connecting rod moves, the force receiving rod two is squeezed, and the hydraulic bin four, the force receiving rod two, the spring three, the hydraulic bin five, the hose two and the friction plate are cooperated, so that when the glass moves downward, a certain sliding friction is provided, the possibility of the building glass falling by accident in the stacking process is further prevented, and the use of the device is more stable. BRIEF DESCRIPTION OF DRAWINGS

[0022] Figure 1 It is a three-dimensional structure schematic view of part of the present application;

[0023] Figure 2 It is a three-dimensional structure schematic view of part of the present application;

[0024] Figure 3 Fig. 1 is a schematic diagram of the overall sectional three-dimensional structure of the present application;

[0025] Figure 4 Fig. 2 is a schematic diagram of the overall sectional three-dimensional structure of the present application; Figure 1 Fig. 3 is a schematic diagram of the enlarged structure at A in Fig. 2;

[0026] Figure 5 Fig. 4 is a schematic diagram of the overall sectional three-dimensional structure of the present application; Figure 2 Fig. 5 is a schematic diagram of the enlarged structure at B in Fig. 4;

[0027] Figure 6 Fig. 6 is a schematic diagram of the overall three-dimensional structure of the extraction assembly of the present application;

[0028] Figure 7 Fig. 7 is a schematic diagram of the overall three-dimensional structure of the partial parts of the extraction assembly of the present application;

[0029] Figure 8 Fig. 8 is a schematic diagram of the overall three-dimensional structure of the auxiliary friction assembly of the present application;

[0030] Figure 9 Fig. 9 is a schematic diagram of the overall three-dimensional structure of the partial parts of the auxiliary friction assembly of the present application.

[0031] Fig. 1 is a schematic diagram of the overall sectional three-dimensional structure of the present application;

[0032] 100, telescopic rod; 200, stacking box; 300, fixed clamping plate; 400, auxiliary clamping plate; 501, hydraulic chamber one; 502, force receiving rod one; 503, connecting rod; 504, hydraulic chamber two; 505, hydraulic rod; 506, suction cup; 507, hydraulic chamber three; 508, hose one; 509, partition plate; 510, arc-shaped spring one; 511, transmission rod; 512, transmission plate; 513, spring two;

[0033] 600, extraction assembly; 601, fixed rod; 602, rotating block; 603, hinged rod one; 604, hinged rod two; 605, air pressure chamber; 606, extraction rod;

[0034] 700, auxiliary friction assembly; 701, hydraulic chamber four; 702, force receiving rod two; 703, spring three; 704, hydraulic chamber five; 705, hose two; 706, friction plate. DETAILED DESCRIPTION

[0035] The technical solutions in the embodiments of the present application will be clearly and completely described below with reference to the drawings in the embodiments of the present application. Obviously, the described embodiments are only a part of the embodiments of the present application, rather than all the embodiments of the present application.

[0036] Embodiment one, please refer to Figures 1-5 A roadway stacking device for building glass production comprises:

[0037] The telescopic rod 100 is equipped with a fixed clamping plate 300 on the side surface, and the fixed clamping plate 300 is rotatably connected with an auxiliary clamping plate 400 driven by an electric rotary rod on the side surface;

[0038] The telescopic rod 100 is equipped with a fixed clamping plate 300 on the side surface, and the fixed clamping plate 300 is rotatably connected with an auxiliary clamping plate 400 driven by an electric rotary rod on the side surface;

[0039] The inner wall of the fixed clamping plate 300 is equipped with a hydraulic chamber 501, one side of the hydraulic chamber 501 is slidably connected with a force rod 502 through a piston, the force rod 502 is located on the side surface of the auxiliary clamping plate 400 and is in a fixed state with the auxiliary clamping plate 400, and the other side of the hydraulic chamber 501 is slidably connected with a connecting rod 503 through a piston. The building glass is placed in the stacking box 200, the electric rotary rod is started, the auxiliary clamping plate 400 driven by the electric rotary rod is rotated and unfolded, at this time, the rotating auxiliary clamping plate 400 can drive the force rod 502 fixedly connected therewith to rotate, the force rod 502 slides into the hydraulic chamber 501 connected therewith through the piston, extrudes the oil in the hydraulic chamber 501, and makes the oil in the hydraulic chamber 501 flow to the side close to the connecting rod 503, so as to drive the connecting rod 503 to move.

[0040] The inner wall of the fixed clamping plate 300 is equipped with a hydraulic chamber 504, the side surface of the hydraulic chamber 504 is slidably connected with a hydraulic rod 505 through a piston, and the side surface of the hydraulic rod 505 is equipped with a suction cup 506. When the connecting rod 503 moves, the hydraulic chamber 504 connected with the connecting rod 503 through the piston is cooperated to reduce the pressure in the hydraulic chamber 504, drive the hydraulic rod 505 slidably connected with the hydraulic chamber 504 to move to the side surface, and the suction cup 506 equipped on the hydraulic rod 505 moves to the side surface and moves out of the fixed clamping plate 300, at this time, the telescopic rod 100 is started to drive the fixed clamping plate 300 to move to the position on both sides of the building glass, and the stable clamping operation and the preliminary adsorption operation on the building glass are completed.

[0041] The force bar 502 and the suction cup 506 are equipped with a transmission member for transmission, the transmission member comprises a hydraulic chamber three 507 equipped in the fixed clamping plate 300, the hydraulic chamber three 507 and the hydraulic chamber one 501 are equipped with a hose one 508, the inner wall of the hydraulic chamber three 507 is rotatably connected with a partition plate 509, the side surface of the partition plate 509 is equipped with an arc spring one 510, the end, away from the partition plate 509, of the arc spring one 510 is equipped on the inner wall of the hydraulic chamber three 507, the side surface of the hydraulic chamber three 507 is slidably connected with a transmission rod 511 through setting a piston, the side surface of the transmission rod 511 is fixedly connected with a transmission plate 512, the side surface of the transmission plate 512 is equipped with a spring two 513. When the oil in the hydraulic chamber one 501 flows, part of the oil flows into the hose one 508, so that the oil originally stored in the hose one 508 flows into the hydraulic chamber three 507, because the partition plate 509 is rotatably connected in the hydraulic chamber three 507, the suction cup 506 can be preferentially moved, and as the oil continues to flow into the hydraulic chamber three 507, the partition plate 509 can be pushed, so that the partition plate 509 rotates by compressing the arc spring one 510, the oil can move to one side of the transmission rod 511, so that the transmission rod 511 drives the transmission plate 512 fixedly connected therewith to move, and the transmission plate 512 immediately applies an additional force to the suction cup 506 through the spring two 513. The suction effect of the suction cup 506 on the side surface of the glass is improved, so that the supporting effect of the device on the wider glass is improved.

[0042] The motor driving the telescopic rod 100 to move in the vertical direction drives the telescopic rod 100 and the building glass to move downward to the required position, the electric rotating rod is enabled, the auxiliary clamping plate 400 driven by the electric rotating rod is rotated, reset, and the telescopic rod 100 is driven to reset and separated from the side surface of the building glass. In order to facilitate the device to stack the next building glass.

[0043] The inside of the fixed clamping plate 300 is equipped with an extraction assembly 600 for extracting gas, and the side surface of the stacking box 200 is equipped with an auxiliary friction assembly 700 for improving friction.

[0044] In use, the building glass is placed in the stacking box 200, the electric rotating rod is started to drive the auxiliary clamping plate 400 to rotate and expand, at this time the rotating auxiliary clamping plate 400 can drive the stress rod I 502 fixedly connected thereto to rotate, the stress rod I 502 slides into the hydraulic chamber I 501 fixedly connected thereto by a piston, extruding the oil in the hydraulic chamber I 501, so that the oil in the hydraulic chamber I 501 flows to the side close to the connecting rod 503, driving the connecting rod 503 to move, cooperating with the hydraulic chamber II 504 connected to the connecting rod 503 by a piston, so that the pressure in the hydraulic chamber II 504 decreases, driving the hydraulic rod 505 connected to the hydraulic chamber II 504 to move to the side, the suction cup 506 assembled on the hydraulic rod 505 moves to the side and moves out of the fixed clamping plate 300, at this time the telescopic rod 100 is started to drive the fixed clamping plate 300 to move to the position on both sides of the building glass, completing the stable clamping operation and the preliminary adsorption operation of the building glass, and when the oil in the hydraulic chamber I 501 flows, part of the oil flows into the hose I 508, so that the oil originally stored in the hose I 508 flows into the hydraulic chamber III 507, because the hydraulic chamber III 507 is rotatably connected with the partition plate 509, it can ensure that the suction cup 506 moves preferentially, and as the oil continues to flow into the hydraulic chamber III 507, it can push the partition plate 509 to make the partition plate 509 compress the arc-shaped spring I 510 to rotate, so that the oil moves to one side of the transmission rod 511, driving the transmission plate 512 fixedly connected to the transmission rod 511 to move, and the transmission plate 512 immediately applies an additional force to the suction cup 506 through the spring II 513; the motor driving the telescopic rod 100 to move in the vertical direction is started to drive the telescopic rod 100 and the building glass to move downward to the required position, the electric rotating rod is started to drive the auxiliary clamping plate 400 to rotate and reset, and the telescopic rod 100 is driven to reset and separate from the side of the building glass.

[0045] In example two, please refer to Figures 1-7 On the basis of example one, the extraction assembly 600 comprises a fixed rod 601 assembled on the top of the hydraulic rod 505, the top of the fixed rod 601 is rotatably connected with a rotating block 602, one end of the rotating block 602 is fixedly connected with a hinged rod I 603, the hinged rod I 603 is located at the top of the transmission rod 511 and is in a hinged state with the transmission rod 511. When the transmission rod 511 drives the transmission plate 512 to move to the side close to the suction cup 506, at this time the hydraulic rod 505 is in a stationary state, the transmission rod 511 immediately drives the hinged rod I 603 connected thereto to move, so that Figure 7 As shown in the middle, the hinged rod I 603 drives the rotating block 602 fixedly connected thereto to rotate counterclockwise by a certain angle.

[0046] The other end of the rotating block 602 is fixedly connected with the second hinged rod 604, the inside of the hydraulic rod 505 is fixedly connected with the penetrating air pressure bin 605, the side of the air pressure bin 605 is slidably connected with the extraction rod 606 through the setting piston, the extraction rod 606 is located at the side of the second hinged rod 604 and is in a hinged state with the second hinged rod 604. When the rotating block 602 counterclockwise rotates by a certain angle, the rotating block 602 drives the second hinged rod 604 fixedly connected with the rotating block 602 to rotate, the second hinged rod 604 drives the extraction rod 606 hinged with the second hinged rod 604 to move, and the air pressure bin 605 slidably connected with the extraction rod 606 is matched, so that the residual gas between the suction cup 506 and the glass can be extracted into the air pressure bin 605, the adsorption effect of the suction cup 506 on the side surface of the building glass is further improved, and the stability of the device during use is improved.

[0047] In use, on the basis of example one, when the transmission rod 511 drives the transmission plate 512 to move to the side close to the suction cup 506, the hydraulic rod 505 is in a stationary state at this time, the transmission rod 511 drives the first hinged rod 603 hinged with the transmission rod 511 to move, so that the first hinged rod 603 drives the rotating block 602 fixedly connected with the first hinged rod 603 to counterclockwise rotate by a certain angle, the rotating block 602 drives the second hinged rod 604 fixedly connected with the rotating block 602 to rotate, the second hinged rod 604 drives the extraction rod 606 hinged with the second hinged rod 604 to move, and the air pressure bin 605 slidably connected with the extraction rod 606 is matched, so that the residual gas between the suction cup 506 and the glass can be extracted into the air pressure bin 605. Figure 7

[0048] Example three, please refer to Figures 1-9 On the basis of example one and example two, the auxiliary friction assembly 700 includes the hydraulic bin four 701 penetrating the telescopic rod 100 and the fixed clamping plate 300, the side of the hydraulic bin four 701 is slidably connected with the second stress rod 702 through the setting piston, the second stress rod 702 is located at the side of the connecting rod 503 and is in contact with the connecting rod 503, the side of the second stress rod 702 is equipped with the spring three 703, one end of the spring three 703 away from the second stress rod 702 is equipped on the inner wall of the hydraulic bin four 701. When the connecting rod 503 moves, the second stress rod 702 can be extruded and driven to move to the side, at this time, the second stress rod 702 compresses the spring three 703 and extrudes the oil liquid stored in the hydraulic bin four 701.

[0049] ​The side of the stacking box 200 is equipped with the hydraulic chamber five 704, the hydraulic chamber five 704 and the hydraulic chamber four 701 are equipped with the hose two 705, the side of the hydraulic chamber five 704 is slidably connected with the friction plate 706 by arranging the piston. When the force bar two 702 extrudes the oil stored in the hydraulic chamber four 701, part of the oil stored in the hydraulic chamber four 701 flows into the hose two 705, part of the oil in the hose two 705 flows into the hydraulic chamber five 704, extruding the friction plate 706, driving the friction plate 706 to move to the side, at this time, the friction plate 706 moves to the inner wall of the stacking box 200, when the glass moves downward, a certain sliding friction force is provided, further preventing the possibility of the building glass falling in the stacking process, making the use of the device more stable.

[0050] In use, on the basis of the first and second embodiments, when the connecting rod 503 moves, the force bar two 702 is extruded, and the force bar two 702 moves to the side, at this time, the force bar two 702 compresses the spring three 703 and extrudes the oil stored in the hydraulic chamber four 701, part of the oil stored in the hydraulic chamber four 701 flows into the hose two 705, part of the oil in the hose two 705 flows into the hydraulic chamber five 704, extruding the friction plate 706, driving the friction plate 706 to move to the side, at this time, the friction plate 706 moves to the inner wall of the stacking box 200, when the glass moves downward, a certain sliding friction force is provided.

[0051] The above is only the preferred specific embodiment of the present application, but the protection scope of the present application is not limited to this, any person skilled in the art in the technical range disclosed by the present application, according to the technical scheme and the inventive concept of the present application, equivalent replacement or change, should be covered in the protection scope of the present application.

Claims

1. A tunnel stacking device for architectural glass production, characterized in that, Include: Telescopic rod (100), the side of telescopic rod (100) is equipped with fixed clamping plate (300), the side of fixed clamping plate (300) is rotatably connected with auxiliary clamping plate (400) driven by electric rotary lever; Stacking box (200), the stacking box (200) is sleeved on the outer side of telescopic rod (100); The inner wall of the fixed clamping plate (300) is equipped with a hydraulic chamber (501), one side of the hydraulic chamber (501) is slidably connected with a force rod (502) by setting a piston, the other side of the hydraulic chamber (501) is slidably connected with a connecting rod (503) by setting a piston, the inside of the fixed clamping plate (300) is equipped with a hydraulic chamber (504), the side of the hydraulic chamber (504) is slidably connected with a hydraulic rod (505) by setting a piston, the side of the hydraulic rod (505) is equipped with a suction cup (506), the transmission member is arranged between the force rod (502) and the suction cup (506), the inside of the fixed clamping plate (300) is equipped with a gas extraction assembly (600), the side of the stacking box (200) is equipped with an auxiliary friction assembly (700) for improving friction.

2. A tunnel stacking device for architectural glass production according to claim 1, characterized in that: The transmission member includes a hydraulic chamber (507) arranged in the inside of the fixed clamping plate (300), a hose (508) is arranged between the hydraulic chamber (507) and the hydraulic chamber (501), the inner wall of the hydraulic chamber (507) is rotatably connected with a partition (509), the side of the partition (509) is equipped with an arc spring (510), the side of the hydraulic chamber (507) is slidably connected with a transmission rod (511) by setting a piston, the side of the transmission rod (511) is fixedly connected with a transmission plate (512), the side of the transmission plate (512) is equipped with a spring (513).

3. A tunnel stacking device for architectural glass production according to claim 2, characterized in that: The force rod (502) is located at the side of the auxiliary clamping plate (400), and is in a fixed state with the auxiliary clamping plate (400).

4. The tunnel stacking device for architectural glass production according to claim 2, characterized in that: The end of the arc spring (510) away from the partition (509) is arranged on the inner wall of the hydraulic chamber (507).

5. The tunnel stacking device for architectural glass production according to claim 2, characterized in that: The extraction assembly (600) includes a fixed rod (601) arranged on the top of the hydraulic rod (505), the top of the fixed rod (601) is rotatably connected with a rotating block (602), one end of the rotating block (602) is fixedly connected with a hinged rod (603), the other end of the rotating block (602) is fixedly connected with a hinged rod (604), the inside of the hydraulic rod (505) is fixedly connected with a gas pressure chamber (605) penetrating through, the side of the gas pressure chamber (605) is slidably connected with an extraction rod (606) by setting a piston.

6. A tunnel stacking device for architectural glass production according to claim 5, characterized in that: The hinged rod (603) is located at the top of the transmission rod (511), and is in a hinged state with the transmission rod (511).

7. A tunnel stacking device for architectural glass production according to claim 5, characterized in that: The extraction rod (606) is located at the side of the hinged rod (604), and is in a hinged state with the hinged rod (604).

8. A tunnel stacking device for architectural glass production according to claim 5, characterized in that: Said auxiliary friction assembly (700) includes hydraulic warehouse four (701) penetrating telescopic rod (100) and fixed clamping plate (300), the side of hydraulic warehouse four (701) is slidably connected with force rod two (702) by setting piston, the side of force rod two (702) is equipped with spring three (703), the side of stacking box (200) is equipped with hydraulic warehouse five (704), hydraulic warehouse five (704) and hydraulic warehouse four (701) are equipped with hose two (705) between, the side of hydraulic warehouse five (704) is slidably connected with friction plate (706) by setting piston.

9. A tunnel stacker for the production of architectural glass according to claim 8, characterized in that: Said force rod two (702) is located in the side of connecting rod (503), and is in contact with connecting rod (503).

10. A tunnel stacker for architectural glass production as claimed in claim 8, characterized in that: Said spring three (703) is away from the one end of force rod two (702), and is equipped on the inner wall of hydraulic warehouse four (701).

Images