Glass bending assembly

Abstract

The utility model relates to the technical field of glass bending, and provides a glass bending assembly which comprises a deformation bending mechanism used for bending glass and changing the shape and a driving mechanism connected with the deformation bending mechanism. When the glass is bent, the driving mechanism drives the deformation bending mechanism to move towards the bending direction of the glass; and after the glass is bent, the driving mechanism drives the deformation bending mechanism to reset. The deformation bending mechanism can adjust the self structure in real time according to the actual bending form of the glass, and the problem of stress concentration caused by the fact that a traditional rigid bending mechanism cannot adapt to glass deformation is effectively solved. The dynamic adaptive mechanism obviously improves the bending precision, is particularly suitable for forming processing of bending the glass at 90 degrees, and meanwhile, reduces the risk that the glass cracks or is damaged in the bending process.

Description

Technical Field

[0001] This utility model relates to the technical field of glass bending, and specifically to a glass bending assembly. Background Technology

[0002] In existing glass bending technologies, traditional bending mechanisms mostly employ rigid molds or fixed support structures. Their design principles primarily rely on static mechanical constraints, making it difficult to dynamically adapt to the continuous deformation requirements of glass during the bending process. Since bending glass after heating and softening is a gradual plastic deformation process, its curvature changes dynamically with temperature, pressure, and time. Traditional rigid molds cannot match this change in real time, leading to uneven stress distribution on the glass surface, which in turn produces defects such as microcracks, creases, and even localized fractures. Utility Model Content

[0003] This invention discloses a glass bending assembly and a glass bending machine. The glass bending assembly incorporates a deformable bending mechanism and a driving mechanism. The bending mechanism, through its own deformation state in conjunction with the glass bending process, significantly reduces the risk of micro-cracks and localized breakage caused by stress concentration. After the glass is bent, the driving mechanism resets the bending mechanism. Furthermore, this design improves bending accuracy and ensures uniform stress distribution on the glass during bending. It is particularly suitable for forming glass with 90° bends, while simultaneously reducing the risk of cracks or breakage during the bending process.

[0004] A glass bending assembly designed for this purpose includes a deformation bending mechanism for bending glass and causing shape changes, and a drive mechanism connected to the deformation bending mechanism.

[0005] When the glass is bent, the drive mechanism drives the deformation and bending mechanism to move in the direction of glass bending;

[0006] After the glass is bent, the drive mechanism drives the deformation and bending mechanism to reset.

[0007] The deformation and bending mechanism includes a deformation section. When the glass is bent, the deformation section deforms and moves in the direction of glass bending. The deformation section includes several connectors, which are movably connected to each other to form a chain-like deformation section.

[0008] The deformable section also includes a first bending fitting component that is rotatably connected to the connector. The first bending fitting component has a first arc surface that fits with the outer surface of the glass. The deformable section changes shape as the glass is bent, and the first bending fitting component bends and fits with the outer surface of the glass through its own first arc surface.

[0009] The first bending fitting is a roller, a roller wheel, or a roller cylinder;

[0010] The first bending fitting has connecting parts on both sides, and several connecting parts and the first bending fitting form a deformation section.

[0011] The deformable section has a chain-like structure. The deformation and bending mechanism is equipped with an air knife assembly for cooling the glass. The air knife assembly has a communicating air inlet and air outlet. The air outlet of the air knife assembly faces the glass. The air knife assembly is located above or below the deformable section.

[0012] The air knife assembly includes an air knife body disposed between two adjacent first bending fittings, and an air inlet pipe and an air outlet disposed on the air knife assembly;

[0013] The connector is provided with a connecting block that is fixedly connected to the air knife body.

[0014] The deformation and bending mechanism includes a first mating section, and the end of the deformation section is connected to the end of the first mating section. When the glass is bent, the deformation section and the first mating section are in an L-shape, an inverted L-shape, a V-shape, or an inverted V-shape.

[0015] The glass bending assembly also includes a second bending mechanism, which includes a bending die that cooperates with the deformation section and a second mating section located at the end of the bending die. The bending die and the second mating section are generally L-shaped, inverted L-shaped, V-shaped, or inverted V-shaped.

[0016] The second section is a roller production conveyor line.

[0017] The number of the first mating section is one. The first end of the deformation section is connected to the end of the first mating section, and the second end of the deformation section is connected to the drive mechanism. The deformation section and the first mating section are in an L-shape or an inverted L-shape when the glass is bent.

[0018] When there are two second mating sections, the bending mold is located between the two second mating sections. One of the second mating sections is arranged vertically to the first mating section, and the other second mating section and the bending mold are arranged together to correspond to the deformation section. When the glass is bent, the glass is limited between the deformation bending mechanism and the second bending mechanism, and the deformation bending mechanism and the second bending mechanism are in an L-shape or an inverted L-shape.

[0019] The first mating section includes a frame and a plurality of first mating parts rotatably connected to the frame. The frame is provided with a lifting cylinder for adjusting the vertical relative position between the first mating section and the second mating section. The output end of the lifting cylinder is connected to the frame in a transmission manner. The first mating parts are rollers, rollers, or cylinders.

[0020] The second mating section is a roller production conveyor line, and the second mating section includes a second bending mating component rotatably mounted on the second mating section; the second bending mating component is a roller, a wheel, or a cylinder.

[0021] The number of the first mating sections is two. The first ends of the two first mating sections are respectively connected to the deformation section, the deformation section is located between the two first mating sections, and the second ends of the two first mating sections are respectively connected to the drive mechanism.

[0022] The second mating section consists of two sections, which are set one-to-one with the corresponding first mating sections. The bending die and the deformation section are set vertically and vertically respectively.

[0023] The two second mating sections are V-shaped or inverted V-shaped with the bending die. The bending die is provided with a power lifting mechanism for driving the bending die to move up and down, so as to adjust the relative position between the second bending mechanism and the deformation bending mechanism.

[0024] The output end of the power lifting mechanism is connected to the bending die, and the two second mating sections are respectively connected to the bending die; the power lifting mechanism is a screw and nut lifting mechanism or a chain and sprocket lifting mechanism and is used to drive the two second mating sections and the bending die to perform synchronous lifting and lowering movements.

[0025] When the glass is bent, the power lifting mechanism drives the second bending mechanism to move toward the direction of the deformation bending mechanism; the two first mating sections move toward the corresponding second mating sections through the corresponding driving mechanisms, so that when the glass is bent, the deformation bending mechanism and the second bending mechanism form a V-shape or an inverted V-shape, and one of the first mating sections is a roller conveyor production line to transport the glass to the preset station after the glass is bent.

[0026] The drive mechanism is a chain-type drive mechanism;

[0027] The driving mechanism includes a glass bending driver, and a lifting transmission component is provided between the drive shaft of the glass bending driver and the deformation bending mechanism. The glass bending driver is connected to the deformation bending mechanism through the lifting transmission component.

[0028] During the glass bending process, the glass bending driver drives the deformation bending mechanism to move along the glass bending direction through the lifting transmission component;

[0029] After the glass is bent, the glass bending driver drives the deformation bending mechanism to reset to the initial position through the lifting transmission component;

[0030] The drive mechanism and the deformation and bending mechanism are mounted on the frame. The drive mechanism drives the deformation and bending mechanism to move up or down, so that the glass is bent up or down at the left end of the frame, or the glass is bent up or down at the right end of the frame.

[0031] The lifting transmission assembly is a sprocket and chain lifting assembly; the sprocket and chain lifting assembly includes a first sprocket, a second sprocket, and a third sprocket;

[0032] The first sprocket and the second sprocket are mounted on the same shaft. A first chain is provided between the first sprocket and the glass bending actuator, and the glass bending actuator is connected to the first sprocket via the first chain. A second chain is provided between the second sprocket, the third sprocket and the deformation bending mechanism, and the second sprocket, the third sprocket and the deformation bending mechanism are connected to each other via the second chain. The glass bending actuator drives the first sprocket to rotate via the first chain, and the second sprocket follows the first sprocket to rotate and drives the deformation bending mechanism to move via the second chain and the third sprocket.

[0033] The glass bending actuator is a hydraulic cylinder.

[0034] The beneficial technical effects of this utility model are as follows:

[0035] The glass bending assembly incorporates a deformable bending mechanism and a drive mechanism. The bending mechanism, by adjusting its own deformation state in conjunction with the glass bending process, significantly reduces the risk of microcracks and localized breakage caused by stress concentration. After the glass is bent, the drive mechanism resets the bending mechanism. Furthermore, this design improves bending accuracy, ensuring uniform stress distribution on the glass during bending. It is particularly suitable for forming glass with 90° bends, while simultaneously reducing the risk of cracks or breakage during the bending process. Attached Figure Description

[0036] The present invention will now be described in further detail with reference to the accompanying drawings and specific embodiments.

[0037] Figure 1 This is a three-dimensional structural diagram of the frame of a glass bending machine according to an embodiment of the present invention.

[0038] Figure 2 This is a schematic diagram of the frame structure of a glass bending machine according to an embodiment of the present invention.

[0039] Figure 3 This is a schematic diagram of the transmission connection between the drive mechanism and the deformation and bending mechanism in one embodiment of the present invention.

[0040] Figure 4 This is a schematic diagram of a glass structure that bends downwards at the right end of the device according to an embodiment of the present invention.

[0041] Figure 5 This is a schematic diagram of a glass bending downwards at the left end of the device according to an embodiment of the present invention.

[0042] Figure 6 This is a schematic diagram of an embodiment of the present invention, showing the glass bending upwards at the left end of the device.

[0043] Figure 7 This is a schematic diagram of an embodiment of the present invention, showing the glass bending upwards at the right end of the device.

[0044] Figure 8 This is a three-dimensional structural diagram of the deformation section on the deformation bending mechanism according to an embodiment of the present invention.

[0045] Figure 9 This is a three-dimensional structural diagram of a deformation bending mechanism with an air knife assembly according to an embodiment of the utility model.

[0046] Figure 10 This is a schematic diagram of the deformation bending mechanism of one embodiment of the present invention, which is a V-shaped bending mechanism with two ends.

[0047] Figure 11 This is a schematic diagram of a three-dimensional cross-sectional structure of a deformation bending mechanism in an embodiment of the present invention, which is a V-shaped bending mechanism with two ends.

[0048] Figure 12 This is a schematic diagram of the planar structure of a deformation bending mechanism in an embodiment of the present invention, which is a V-shaped bending mechanism with two ends.

[0049] Figure 13 This is a schematic diagram of the deformation bending mechanism of an embodiment of the present invention, which is a two-end type with an inverted V-shaped bend. Detailed Implementation

[0050] The technical solutions of the present utility model will be clearly and completely described below with reference to the embodiments of the present utility model. Obviously, the described embodiments are only some embodiments of the present utility model, and not all embodiments. In order to make the above-mentioned objects, features and advantages of the present application more apparent and understandable, many specific details are set forth in the following description in order to provide a full understanding of the present application. However, the present application can be implemented in many other ways different from those described herein, and those skilled in the art can make similar improvements without departing from the spirit of the present application. Therefore, the present application is not limited to the specific embodiments disclosed below.

[0051] See Figures 1-13 A glass bending assembly includes a deformation bending mechanism 2 for bending glass and causing shape changes, and a drive mechanism 1 connected to the deformation bending mechanism 2.

[0052] When the glass 18 is bent, the drive mechanism 1 drives the deformation and bending mechanism 2 to move in the bending direction of the glass 18.

[0053] After the glass 18 is bent, the drive mechanism 1 drives the deformation and bending mechanism 2 to reset and operate.

[0054] The deformation bending mechanism can adjust its structure in real time according to the actual bending shape of the glass, effectively avoiding the stress concentration problem caused by the inability of traditional rigid bending mechanisms to adapt to glass deformation. This dynamic adaptation mechanism significantly improves bending accuracy, and is especially suitable for forming glass with a 90° bend, while reducing the risk of cracks or breakage during the bending process.

[0055] The glass bending assembly incorporates a deformable bending mechanism 2 and a drive mechanism 1. The bending mechanism 2, through its own deformation state, coordinates with the bending of the glass 18, significantly reducing the risk of micro-cracks and localized breakage caused by stress concentration in the glass 18. After the glass 18 is bent, the drive mechanism 1 drives the bending mechanism 2 to reset. Furthermore, this design improves bending accuracy and ensures uniform stress distribution on the glass during bending. It is particularly suitable for forming glass with 90° bends, while simultaneously reducing the risk of cracks or breakage during the bending process.

[0056] The deformation and bending mechanism 2 includes a deformation section 24. When the glass 18 is bent, the deformation section deforms and moves in the bending direction of the glass 18. The deformation section 24 includes a plurality of connectors 3, which are movably connected to each other and form a chain-like deformation section 24.

[0057] By designing the deformation segment 24 as a chain structure composed of several movable connecting members 3, the deformation segment 24 achieves deformation adaptation to the bending of the glass 18 during the bending process. The chain arrangement of the connecting members 3 allows the deformation segment 24 to be flexibly adjusted during the bending of the glass 18 through deformation, avoiding the problem of local stress concentration in traditional rigid supports. This structure not only improves the bending uniformity of the glass 18 but also enhances the durability and maintainability of the mechanism. In addition, the chain design facilitates modular assembly and can adapt to different bending angles of the glass 18, significantly expanding the applicability of the equipment.

[0058] The deformable section 24 also includes a first bending fitting 4 rotatably connected to the connector 3. The first bending fitting 4 is provided with a first arc surface 5 that fits with the outer surface of the glass 18. The deformable section 24 changes shape as the glass 18 is bent, and the first bending fitting 4 bends and fits with the outer surface of the glass 18 through its own first arc surface 5.

[0059] In this embodiment, one end of the deformable segment 24 is provided with a connecting post 19 for connecting the chain.

[0060] The first bending fitting 4 is a roller, a roller wheel or a cylinder.

[0061] The first bending fitting 4 has connecting parts 3 on both sides, and a number of connecting parts 3 and the first bending fitting 4 form a deformation section 24.

[0062] A bearing is provided at the rotatable connection between the first bending fitting 4 and the connecting part 3.

[0063] By providing a first arc surface 5 on the first bending fitting 4 that mates with the outer surface of the glass 18, the uniformity of force distribution during the bending process of the glass 18 is further optimized. The arrangement of the roller, wheel, or cylinder reduces friction during the rotation of the first bending fitting 4, preventing scratches on the surface of the glass 18 (this can be understood as follows: if the glass 18 comes into contact with the first bending fitting 4 during the bending process, the first bending fitting 4 rotates on the connecting member 3, reducing frictional contact force).

[0064] When the glass 18 is bent downwards, the outer surface of the glass 18 becomes the top surface of the glass 18, and the top surface of the glass 18 mates with the first arc surface 5.

[0065] When the glass 18 is bent upwards, the outer surface of the glass 18 becomes the bottom surface of the glass 18, and the bottom surface of the glass 18 mates with the first arc surface 5.

[0066] The deformable section 24 has a chain-like structure. The deformation and bending mechanism 2 is equipped with an air knife assembly 6 for cooling the glass 18. The air knife assembly 6 has a communicating air inlet and air outlet. The air outlet of the air knife assembly 6 faces the glass 18. The air knife assembly 6 is positioned above or below the deformable section 24.

[0067] The air knife assembly 6 includes an air knife body 6.1 disposed between two adjacent first bending fittings 4, and an air inlet pipe 6.2 and an air outlet 6.3 disposed on the air knife assembly 6;

[0068] The connector 3 is provided with a connecting block 3.1 that is fixedly connected to the air knife body 6.1.

[0069] The integrated design of the air knife assembly 6 achieves real-time cooling of the bent glass 18 by setting an air inlet and an air outlet above or below the deformation section 24. The fixed connection between the air knife body 6.1 and the connecting block 3.1 ensures the precise positioning of the air outlet 6.3, allowing the cooling airflow to evenly cover the surface of the glass 18. This technology avoids the abrupt temperature gradient caused by traditional cooling methods, thereby reducing thermal stress cracks.

[0070] The deformation and bending mechanism 2 includes a first mating section 16, and the deformation section 24 is connected to the end of the first mating section 16. When the glass 18 is bent, the deformation section 24 and the first mating section 16 are in an L-shape, an inverted L-shape, a V-shape, or an inverted V-shape.

[0071] The glass bending assembly also includes a second bending mechanism 25, which includes a bending die 7 that cooperates with the deformation section 24 and a second mating section 26 located at the end of the bending die 7. The bending die 7 and the second mating section 26 are generally L-shaped, inverted L-shaped, V-shaped or inverted V-shaped.

[0072] The number of the first mating section 16 is one. The first end of the deformable section 24 is connected to the end of the first mating section 16. The second end of the deformable section 24 is connected to the drive mechanism 1. The deformable section 24 and the first mating section 16 form an L-shape or an inverted L-shape when the glass 18 is bent.

[0073] When there are two second mating sections 26, the bending mold 7 is located between the two second mating sections 26. One of the second mating sections 26 is arranged vertically to the first mating section 16, and the other second mating section 26 and the bending mold 7 are arranged to correspond with the deformation section 24. When the glass 18 is bent, the glass 18 is limited between the deformation bending mechanism 2 and the second bending mechanism 25, and the deformation bending mechanism 2 and the second bending mechanism 25 are in an L-shape or an inverted L-shape.

[0074] The first mating section 16 includes a frame 16.1 and a plurality of first mating parts 16.3 rotatably connected to the frame 16.1. The frame 16.1 is provided with a lifting cylinder 16.2 for adjusting the vertical relative position between the first mating section 16 and the second mating section 26. The output end of the lifting cylinder 16.2 is connected to the frame 16.1 in a transmission manner. The first mating parts 16.3 are rollers, wheels, or cylinders.

[0075] The second mating section 26 is a roller production conveyor line. The second mating section 26 includes a second bending mating component 26.1 rotatably mounted on the second mating section 26. The second bending mating component 26.1 is a roller, a wheel, or a cylinder.

[0076] Alternatively, there are two first mating sections 16, with the first ends of the two first mating sections 16 respectively connected to the deformable section 24, the deformable section 24 located between the two first mating sections 16, and the second ends of the two first mating sections 16 respectively connected to the drive mechanism 1 for transmission.

[0077] The second mating section 26 is two in number and is set in one-to-one correspondence with the corresponding first mating section 16; the bending die 7 is set vertically and vertically corresponding to the deformation section 24.

[0078] The two second mating sections 26 are V-shaped or inverted V-shaped with the bending die 7. The bending die 7 is provided with a power lifting mechanism 20 for driving the bending die 7 to move up and down, so as to adjust the relative position between the second bending mechanism 25 and the deformation bending mechanism 2.

[0079] The output end of the power lifting mechanism 20 is connected to the bending die 7, and the two second mating sections 26 are respectively connected to the bending die 7. The power lifting mechanism 20 is a screw and nut lifting mechanism or a chain and sprocket lifting mechanism and is used to drive the two second mating sections 26 and the bending die 7 to perform synchronous lifting and lowering movements.

[0080] When the glass 18 is bent, the power lifting mechanism 20 drives the second bending mechanism 25 to move toward the direction of the deformation bending mechanism 2; the two first mating sections 16 move toward the corresponding second mating section 26 through the corresponding driving mechanism 1, so that when the glass 18 is bent, the deformation bending mechanism 2 and the second bending mechanism 25 form a V-shape or an inverted V-shape.

[0081] In this embodiment, when the deformation bending mechanism 2 and the second bending mechanism 25 form a V-shape during the bending process of the glass 18, one of the two first mating sections 16 is a roller conveying structure that drives several rollers to rotate via a motor, sprocket, and chain (which can be understood as one of the first mating sections (6 is a roller conveying production line)). This conveys the glass 18 to a preset station after bending, reducing manual intervention. After the glass 18 is bent, the second bending mechanism 25 moves away from the deformation bending mechanism 2, and one of the first mating sections 16 slowly resets. The other first mating section 16, which is the roller conveying structure, then slowly resets as well. The bent glass rests on the first mating section 16 of the roller conveying structure to achieve the conveying of the glass 18.

[0082] In this embodiment, the power lifting mechanism 20 is either a screw and nut lifting mechanism or a chain and sprocket lifting mechanism. When the power lifting mechanism 20 is a screw and nut lifting mechanism, it includes two lifting motors 21 connected by a synchronous rod, two nut seats connected to the bending die 7, and two screws 22 threadedly connected to the nut seats. Each lifting motor 21 is connected to a corresponding screw 22, and the two screws 22 rotate synchronously, causing the two ends of the bending die 7 of the second bending mechanism 25 to move synchronously. The two lifting motors 21 are fixed on the mounting plate.

[0083] The drive mechanism 1 is a chain-type drive mechanism;

[0084] The drive mechanism 1 includes a glass bending driver 9, and a lifting transmission assembly 10 is provided between the drive shaft of the glass bending driver 9 and the deformation bending mechanism 2. The glass bending driver 9 is connected to the deformation bending mechanism 2 through the lifting transmission assembly 10.

[0085] During the glass bending process, the glass bending driver 9 drives the deformation bending mechanism 2 to move along the glass bending direction through the lifting transmission assembly 10;

[0086] After the glass 18 is bent, the glass bending driver 9 drives the deformation bending mechanism 2 to reset to the initial position via the lifting transmission assembly 10.

[0087] The lifting transmission assembly 10 is a sprocket and chain lifting assembly; the sprocket and chain lifting assembly includes a first sprocket 11, a second sprocket 12 and a third sprocket 13;

[0088] The first sprocket 11 and the second sprocket 12 are both mounted on the same shaft. A first chain 14 is provided between the first sprocket 11 and the glass bending actuator 9, and the glass bending actuator 9 is connected to the first sprocket 11 via the first chain 14. A second chain 15 is provided between the second sprocket 12, the third sprocket 13 and the deformation bending mechanism 2, and the second sprocket 12, the third sprocket 13 and the deformation bending mechanism 2 are connected to each other via the second chain 15. The glass bending actuator 9 drives the first sprocket 11 to rotate via the first chain 14, and the second sprocket 12 follows the first sprocket 11 to rotate and drives the deformation bending mechanism 2 to move via the second chain 15 and the third sprocket 13.

[0089] The drive mechanism 1 and the deformation and bending mechanism 2 are mounted on the frame 8. The drive mechanism 1 drives the deformation and bending mechanism 2 to move upward or downward, so that the glass 18 is bent upward or downward at the left end of the frame 8, or the glass 18 is bent upward or downward at the right end of the frame 8.

[0090] The glass bending actuator 9 is a hydraulic cylinder.

[0091] In this embodiment, each of the second mating sections 26 is a roller production conveyor line.

[0092] The above are merely preferred embodiments of the present utility model and are not intended to limit the present utility model. Any modifications, equivalent substitutions, improvements, etc., made within the spirit and principles of the present utility model shall be included within the protection scope of the present utility model.

Claims

1. A glass bending assembly, characterized in that: It includes a deformation bending mechanism (2) for bending glass and causing shape changes, and a drive mechanism (1) connected to the deformation bending mechanism (2). When the glass (18) is bent, the driving mechanism (1) drives the deformation bending mechanism (2) to move in the bending direction of the glass (18); After the glass (18) is bent, the drive mechanism (1) drives the deformation bending mechanism (2) to reset and run.

2. The glass bending assembly according to claim 1, characterized in that: The deformation bending mechanism (2) includes a deformation section (24). When the glass (18) is bent, the deformation section deforms and moves in the direction of bending the glass (18). The deformation section (24) includes several connectors (3). The several connectors (3) are movably connected to each other and form a chain-like deformation section (24).

3. The glass bending assembly according to claim 2, characterized in that: The deformable segment (24) also includes a first bending fitting (4) rotatably connected to the connector (3). The first bending fitting (4) is provided with a first arc surface (5) that fits with the outer surface of the glass (18). The deformable segment (24) changes shape as the glass (18) bends, and the first bending fitting (4) bends with the outer surface of the glass (18) through its own first arc surface (5). The first bending fitting (4) is a roller, a roller wheel or a roller cylinder; The first bending fitting (4) has connecting parts (3) on both sides, and a number of connecting parts (3) and the first bending fitting (4) form a deformation section (24).

4. The glass bending assembly according to claim 3, characterized in that: The deformation bending mechanism (2) is provided with an air knife assembly (6) for cooling the glass (18). The air knife assembly (6) is provided with an air inlet and an air outlet that are connected. The air outlet of the air knife assembly (6) faces the glass (18). The air knife assembly (6) is located above or below the deformation section (24). The air knife assembly (6) includes an air knife body (6.1) disposed between two adjacent first bending fittings (4), and an air inlet pipe (6.2) and an air outlet (6.3) disposed on the air knife assembly (6). The connector (3) is provided with a connecting block (3.1) that is fixedly connected to the air knife body (6.1).

5. The glass bending assembly according to claim 2, characterized in that: The deformation bending mechanism (2) includes a first mating section (16), and the end of the deformation section (24) is connected to the end of the first mating section (16). When the glass (18) is bent, the deformation section (24) and the first mating section (16) are in an L-shape, an inverted L-shape, a V-shape, or an inverted V-shape.

6. The glass bending assembly according to claim 5, characterized in that: It also includes a second bending mechanism (25), which includes a bending die (7) that cooperates with the deformation section (24) and a second mating section (26) located at the end of the bending die (7). The bending die (7) and the second mating section (26) are in the shape of an L, an inverted L, a V, or an inverted V.

7. The glass bending assembly according to claim 6, characterized in that: The first mating section (16) is one, the first end of the deformable section (24) is connected to the end of the first mating section (16), the second end of the deformable section (24) is connected to the drive mechanism (1) for transmission, and the deformable section (24) and the first mating section (16) are in an L-shape or an inverted L-shape when the glass (18) is bent; When there are two second mating sections (26), the bending die (7) is located between the two second mating sections (26). One of the second mating sections (26) is arranged vertically with the first mating section (16), and the other second mating section (26) and the bending die (7) are arranged in relation to the deformation section (24). When the glass (18) is bent, the glass (18) is limited between the deformation bending mechanism (2) and the second bending mechanism (25), and the deformation bending mechanism (2) and the second bending mechanism (25) are in an L-shape or an inverted L-shape. The first mating section (16) includes a frame (16.1) and a plurality of first mating parts (16.3) rotatably connected to the frame (16.1). The frame (16.1) is provided with a lifting cylinder (16.2) for adjusting the vertical relative position between the first mating section (16) and the second mating section (26). The output end of the lifting cylinder (16.2) is connected to the frame (16.1) in a transmission manner. The first mating parts (16.3) are rollers, rollers or cylinders. The second mating section (26) is a roller production conveyor line. The second mating section (26) includes a second bending mating component (26.1) rotatably mounted on the second mating section (26). The second bending mating component (26.1) is a roller, a wheel, or a cylinder.

8. The glass bending assembly according to claim 6, characterized in that: There are two first mating sections (16). The first ends of the two first mating sections (16) are respectively connected to the deformable section (24). The deformable section (24) is located between the two first mating sections (16). The second ends of the two first mating sections (16) are respectively connected to the drive mechanism (1). The second mating section (26) has two parts and is set one-to-one with the corresponding first mating section (16). The bending die (7) and the deformation section (24) are set vertically and vertically respectively. The two second mating sections (26) are V-shaped or inverted V-shaped with the bending die (7). The bending die (7) is provided with a power lifting mechanism (20) for driving the bending die (7) to rise and fall, so as to adjust the relative position between the second bending mechanism (25) and the deformation bending mechanism (2). The output end of the power lifting mechanism (20) is connected to the bending die (7) for transmission, and the two second mating sections (26) are respectively connected to the bending die (7); the power lifting mechanism (20) is a screw and nut lifting mechanism or a chain and sprocket lifting mechanism and is used to drive the two second mating sections (26) and the bending die (7) to perform synchronous lifting movements; When the glass (18) is bent, the power lifting mechanism (20) drives the second bending mechanism (25) to move toward the direction of the deformation bending mechanism (2); the two first mating sections (16) move toward the corresponding second mating section (26) through the corresponding driving mechanism (1) so that when the glass (18) is bent, the deformation bending mechanism (2) and the second bending mechanism (25) form a V-shape or an inverted V-shape, and one of the first mating sections (16) is a roller conveyor production line.

9. The glass bending assembly according to claim 1, characterized in that: The drive mechanism (1) is a chain drive mechanism; The drive mechanism (1) includes a glass bending driver (9), and a lifting transmission assembly (10) is provided between the drive shaft of the glass bending driver (9) and the deformation bending mechanism (2). The glass bending driver (9) is connected to the deformation bending mechanism (2) through the lifting transmission assembly (10). During the glass (18) bending process, the glass bending driver (9) drives the deformation bending mechanism (2) to move along the glass (18) bending direction through the lifting transmission assembly (10); After the glass (18) is bent, the glass bending driver (9) drives the deformation bending mechanism (2) to reset to the initial position through the lifting transmission assembly (10); The drive mechanism (1) and the deformation and bending mechanism (2) are mounted on the frame (8). The drive mechanism (1) drives the deformation and bending mechanism (2) to move upward or downward, so that the glass (18) is bent upward or downward at the left end of the frame (8), or the glass (18) is bent upward or downward at the right end of the frame (8).

10. The glass bending assembly according to claim 9, characterized in that: The lifting transmission assembly (10) is a sprocket and chain lifting assembly; the sprocket and chain lifting assembly includes a first sprocket (11), a second sprocket (12) and a third sprocket (13). The first sprocket (11) and the second sprocket (12) are both mounted on the same shaft. A first chain (14) is provided between the first sprocket (11) and the glass bending actuator (9). The glass bending actuator (9) is connected to the first sprocket (11) via the first chain (14). A second chain (15) is provided between the second sprocket (12), the third sprocket (13) and the deformation bending mechanism (2). The second sprocket (12), the third sprocket (13) and the deformation bending mechanism (2) are connected to each other via the second chain (15). The glass bending actuator (9) drives the first sprocket (11) to rotate via the first chain (14). The second sprocket (12) follows the first sprocket (11) to rotate and drives the deformation bending mechanism (2) to move via the second chain (15) and the third sprocket (13). The glass bending actuator (9) is a hydraulic cylinder.

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