Glass surface texture transfer printing processing device and processing method thereof

Abstract

The invention relates to the technical field of transfer printing machines, in particular to a glass surface texture transfer printing machining device and a machining method thereof.The glass surface texture transfer printing machining device comprises a base, a fixed mounting plate, a rotating cylinder, a rotating assembly, a fixing mechanism and a telescopic mechanism; the base is installed on the ground, the fixed installation plate is installed on the base, the rotating cylinder is installed on the side face of the fixed installation plate, the rotating assembly is installed on the inner side face of the fixed installation plate, the fixing mechanism is installed outside the rotating assembly, and the telescopic mechanism is installed in the fixing mechanism. A telescopic rod in the rotating assembly drives a telescopic mechanism to stretch out and draw back, a telescopic block is driven by the telescopic rod to move outwards, and an annular fixing strip and a vertical fixing strip make contact with the inner wall of the glass. Therefore, glass in different shapes can be fixed and supported.

Description

Technical Field

[0001] The present invention relates to the technical field of transfer printers, and particularly relates to a glass surface texture transfer processing device and a processing method thereof. Background Art

[0002] In the field of modern glass product manufacturing and deep processing, the aesthetic decoration and functional improvement of the glass surface have gradually become the focus of research and industrial attention. Although traditional glass surface treatment methods, such as sandblasting, etching, screen printing, etc., have been widely used, they generally have disadvantages such as low production efficiency, poor pattern accuracy, poor repeatability, and environmental pollution. Especially in application scenarios that pursue high-precision texture patterns and three-dimensional decorative effects, traditional processes are difficult to meet the design requirements and mass production needs. In recent years, as an emerging processing method, texture transfer technology can not only achieve high-precision pattern replication by transferring the patterns on a mold or carrier with micro-structured patterns to the glass surface, but also has advantages such as low cost, high efficiency, and batch operation. However, there are still some problems in the current glass texture transfer process, such as inaccurate mold positioning, uneven transfer pressure, poor material adhesion, or blurred pattern edges. These problems directly affect the appearance quality and functional performance of the finished product. Therefore, it is of great practical value and broad application prospects to develop a glass surface texture transfer processing device with reasonable structure, simple operation, and precise pattern forming.

[0003] Existing glass surface texture transfer processing devices have great limitations when dealing with glass cups of different shapes and specifications. Usually, corresponding jigs or fixing tools need to be designed separately for each size or contour. This not only increases the frequency of tooling replacement, reduces production efficiency, but also brings higher manufacturing and maintenance costs. At the same time, problems such as inaccurate positioning and unstable clamping are likely to occur during the tooling replacement process, affecting the consistency and accuracy of the transfer effect. Therefore, there are certain operational inconveniences and insufficient adaptability in the multi-specification flexible processing of existing devices.

[0004] In view of the above situation, in order to overcome the above technical problems, the present invention designs a glass surface texture transfer processing device and a processing method thereof, which solve the above technical problems. Summary of the Invention

[0005] The technical object to be achieved by the present invention is: to design a glass surface texture transfer processing device and a processing method thereof. In order to achieve the above technical object, the present invention provides the following technical solution: When facing glass cups with different shapes, through the cooperation of a telescopic mechanism and a fixing mechanism, self-adaptive fixation is carried out under the action of centrifugal force, improving the working efficiency.

[0006] A glass surface texture transfer processing device includes a base, a fixed mounting plate, a rotating cylinder, a rotating assembly, a fixing mechanism, and a telescopic mechanism. The base is stably installed on the ground to bear the weight of the entire device and maintain stability during the processing. The fixed mounting plate is installed above the base to support the rotating cylinder and the rotating assembly, forming the main mounting platform. The rotating cylinder is arranged on the side of the fixed mounting plate and can be used to cooperate with different processing actions to realize the rotation adjustment function of the clamping component. The rotating assembly is installed on the inner side of the fixed mounting plate and drives the rotating cylinder and its upper structure to rotate precisely through a driving mechanism, so as to meet the positioning requirements of the texture pattern.

[0007] The fixing mechanism is installed around the rotating assembly and is used to effectively clamp the glass product. An telescopic mechanism is arranged inside the fixing mechanism, and the telescopic mechanism is driven by a telescopic rod in the rotating assembly. When the telescopic rod makes a telescopic movement, it drives the telescopic block located inside to move radially outwards. An annular fixing strip and a vertical fixing strip are connected to the outside of the telescopic block. These two fixing elements are in firm contact with the inner wall of the glassware under the push of the telescopic block. Through this structural design, glass products of different sizes or shapes (such as cup-shaped, conical or curved glass) can be clamped and supported by the same set of tooling, improving the versatility and adaptability of the device in the actual processing process. This multi-directional adaptive clamping method effectively solves the technical problem that traditional devices need to frequently replace fixtures when facing special-shaped glass, and the operation is more efficient and convenient.

[0008] The rotating assembly includes a rotating shaft, a telescopic rod, and a mating block. The rotating shaft is installed vertically in the middle of the fixed mounting plate and realizes stable rotation through a bearing assembly, and is used to drive the internal structure to rotate around the central axis. The telescopic rod is installed in the hollow structure of the rotating shaft and can realize reciprocating telescopic movement along the axial direction inside the rotating shaft, so as to provide a linear driving force for the subsequent clamping action. The material of the telescopic rod is selected from high-strength alloy steel or stainless steel, which has good rigidity and fatigue resistance, ensuring its stability and durability during long-term operation. The mating block is installed at the outermost end of the telescopic rod and is a key component connecting the telescopic mechanism. Its surface is processed precisely and can be precisely fitted and transmit force with the subsequent installed telescopic block, so as to ensure the synchronism and reliability of the clamping action. The rotating assembly has a compact structure and high fitting precision, and is an important core component for the entire device to realize automatic clamping and transfer actions.

[0009] The telescopic rods are evenly distributed around the rotating shaft in a circular array, enabling a symmetric and stable stress state during the telescopic movement. Each telescopic rod has an independent telescopic ability and can automatically adjust its length according to the actual size of the glass to be clamped, achieving precise adaptation and fixation for glass products of different shapes, effectively enhancing the stability and versatility of clamping.

[0010] The fixing mechanism includes multiple key structures such as a fixing cylinder, a rotating hole, a spacer plate, a receiving groove, and a telescopic hole, which are used to achieve firm clamping and precise positioning of the glass product. The fixing cylinder is integrally installed on the external structure of the rotating assembly, playing a supporting and connecting role. Its structure is firm and can withstand various mechanical stresses during the clamping process. A rotating hole is provided in the middle of the fixing cylinder, which cooperates with the rotating shaft to ensure the flexible rotation function of the device during operation. Multiple spacer plates are installed on the side of the fixing cylinder, and the spacer plates are distributed at a certain distance to form functional areas. Multiple receiving grooves are opened between the spacer plates, and the receiving grooves are arranged in a linear array, neatly and orderly, for placing and guiding the movement of the telescopic assembly. Each receiving groove further has a telescopic hole inside, which provides a moving channel for the telescopic block, enabling it to move outwards under the drive of the telescopic rod and contact the inner wall of the glass. Through the above structure, the fixing mechanism is not only compact in structure and reasonable in layout, but also has good installation accuracy and operation stability, ensuring a reliable clamping effect of the overall device during the processing of glass products of multiple specifications.

[0011] The cross-sectional shape of the receiving groove is designed as a sector ring, presenting an arc-shaped structure, which can better adapt to the outer contour of cylindrical or conical glass products, thus achieving a more fitting support and positioning effect. The receiving groove is arranged between two adjacent spacer plates and is evenly arranged through a reasonable distribution angle, which not only improves the guiding accuracy of the telescopic assembly, but also enhances the stability and stress balance of the overall structure, providing a reliable support channel for subsequent clamping actions.

[0012] Multiple limiting blocks are provided on the side of the spacer plate to limit the movement range of the telescopic assembly, prevent it from shifting or falling off during the working process, and ensure the stability and safety of the operation. The cross-sectional shape of the limiting block is designed as a trapezoid, which helps to enhance the fitting firmness between it and the spacer plate, improving the structural strength and impact resistance. At the same time, a guiding groove is provided on the inner side of the receiving groove to guide the telescopic block to move smoothly along a predetermined path, improving the smoothness and positioning accuracy of the telescopic movement.

[0013] The telescopic mechanism includes multiple structural components such as telescopic blocks, guide bars, limit grooves, mounting holes, and mounting grooves, forming a fully functional and structurally compact adjustable clamping system. Among them, the telescopic block is the core component, installed inside the receiving groove of the fixing mechanism, responsible for axial movement driven by the telescopic rod to achieve contact and fixation on the inner wall of the glass. The guide bars are respectively arranged on the upper and lower surfaces of the telescopic block, cooperating with the guide grooves in the receiving groove to play a guiding role, ensuring that the telescopic block always runs smoothly along the established path during the telescopic process, avoiding deflection or jamming. The limit groove is opened on the side surface of the telescopic block, used to cooperate with the spacer or limit block to limit its movement range and prevent damage caused by excessive extension. The mounting hole is set on the inner side surface of the telescopic block for connecting the telescopic rod to ensure the reliability of power transmission. At the same time, a mounting groove is also provided on the side of the mounting hole to facilitate the insertion of positioning pins or auxiliary parts, further enhancing the connection stability and ensuring reliable clamping and precise positioning under different working conditions.

[0014] The outer side surface of the telescopic block is designed with two structures, namely an annular fixing strip and a vertical fixing strip. These two fixing strips are evenly arranged in a linear array, capable of effectively supporting and fixing the glass product in multiple directions. The annular fixing strip is distributed in a ring shape along the periphery of the telescopic block, mainly playing the role of surrounding and embracing the inner wall of the glass; while the vertical fixing strips are arranged vertically to enhance the clamping force on the local area of the glass surface. Both the annular fixing strip and the vertical fixing strip are made of a soft and elastic rubber material, which can not only increase the friction during clamping to prevent the glass from sliding during clamping, but also effectively buffer the pressure to avoid scratching or damaging the glass surface caused by direct contact with hard materials. Between the annular fixing strip and the vertical fixing strip, several cavity structures are formed, which can increase the elasticity and deformation space of the overall structure, making the clamping more flexible and adaptable to various glass shapes, and further improving the versatility and clamping stability of the device.

[0015] A glass surface texture transfer processing method, which is used to cooperate with the above-mentioned glass surface texture transfer processing device; characterized in that the steps of the method are as follows: S1: Before performing the glass surface texture transfer, use cleaning agents such as anhydrous ethanol and deionized water to remove oil stains, dust, and particulate impurities on the glass surface to ensure that the surface is free of contaminants; S2: The staff places the glass cup to be subjected to transfer processing on the outside of the telescopic mechanism, fixes the rotating cylinder at the bottom of the glass cup. At this time, both sides of the bottom of the glass cup are fixed by the rotating cylinder and the side surface of the fixing mechanism; S3: Start the rotating cylinder, and the rotating cylinder drives the glass cup and the fixing mechanism to rotate rapidly. After reaching a certain speed, the telescopic mechanism installed on the fixing mechanism moves outward under the influence of centrifugal force, so as to fit to the inner side of the cup wall for adaptive fixation; S4: Prepare a prefabricated silicone mold or metal stamping mold, coat the mold surface with a layer of anti-stick coating, and accurately align the mold with the surface of the glass substrate through a positioning device to ensure accurate alignment of the texture pattern; S4: After heating the mold, lower it so that it is outside the glass cup to complete the transfer. After the texture pattern is solidified or cooled, inspect the transferred glass surface to confirm that the pattern is clear, uniform and defect-free.

[0016] The beneficial effects of the present invention are as follows: (1) The high flexibility and adaptability of the structural design of the present invention can effectively solve the problem that traditional glass surface texture transfer processing devices are difficult to fix when facing various glass shapes. By setting a telescopic mechanism and matching annular fixing strips and vertical fixing strips, the device can automatically adjust the clamping force and position according to glassware of different specifications and shapes, thereby achieving stable support for a variety of special-shaped glasses. This not only greatly reduces the frequency of tooling replacement and the complexity of manual adjustment, and improves production efficiency, but also avoids quality problems such as glass breakage and uneven pattern transfer caused by improper clamping. In addition, the use of rubber fixing strips effectively protects the glass surface and prevents scratches, ensuring the aesthetics and functionality of the finished product. Overall, the device greatly improves the flexibility and reliability of the glass texture transfer process, meeting the needs of modern manufacturing for personalized and diversified products.

[0017] (2) The telescopic components and fixed structures of the present invention are reasonably designed, the equipment runs smoothly and is easy to maintain, which reduces maintenance costs and downtime, extends the service life, and improves the overall stability of the production line. The intelligent telescopic and rotation control combined with the high-precision positioning device makes the transfer pattern more accurate, significantly reduces the scrap rate, reduces the waste of raw materials and energy consumption, and complies with the concept of green manufacturing. In addition, the device is compatible with a variety of transfer processes and materials, and is widely used in the fields of architectural decorative glass, household appliance panels, automotive glass, etc., expanding the market application scope of the product. In summary, the present invention not only improves product quality and production efficiency, but also promotes the advancement of glass deep processing technology, and has good promotion value and industrial application prospects. BRIEF DESCRIPTION OF THE DRAWINGS

[0018] In order to more clearly illustrate the specific implementation methods of the present invention or the technical solutions in the prior art, the drawings required for use in the specific implementation methods or the description of the prior art will be briefly introduced below. Obviously, the drawings described below are some implementation methods of the present invention. For ordinary technicians in this field, other drawings can be obtained based on these drawings without paying creative work.

[0019] The above and other aspects of the present invention will now be described, by way of example only, with reference to the accompanying drawings, in which: Figure 1 is the overall structural schematic diagram of the present invention; Figure 2 is the structural schematic diagram of the rotating assembly, fixing mechanism and telescopic mechanism of the present invention; Figure 3 is the structural schematic diagram of the rotating assembly of the present invention; Figure 4 is the structural schematic diagram of the fixing mechanism of the present invention; Figure 5 is the position schematic diagram of the limiting block and the guiding groove of the present invention; Figure 6 is the structural schematic diagram of the telescopic mechanism of the present invention; Figure 7 is the structural schematic diagram of the telescopic block of the present invention; Figure 8 is the sectional view of the telescopic block of the present invention.

[0020] In the figure: 1, base; 2, fixed mounting plate; 3, rotating cylinder; 4, rotating assembly; 41, rotating shaft; 42, telescopic rod; 43, mating block; 5, fixing mechanism; 51, fixing cylinder; 52, rotating hole; 53, spacer plate; 531, limiting block; 54, receiving groove; 541, guiding groove; 55, telescopic hole; 6, telescopic mechanism; 61, telescopic block; 611, annular fixing strip; 612, vertical fixing strip; 62, guiding strip; 63, limiting groove; 64, mounting hole; 65, mounting groove. Detailed Embodiment

[0021] In order to better understand the above technical solution, the above technical solution will be described in detail below in conjunction with the accompanying drawings of the specification and specific embodiments.

[0022] As Figure 1-8 shown, a glass surface texture transfer processing device includes a base 1, a fixed mounting plate 2, a rotating cylinder 3, a rotating assembly 4, a fixing mechanism 5 and a telescopic mechanism 6. The base 1 is stably installed on the ground, used to bear the weight of the entire device and maintain stability during the processing. The fixed mounting plate 2 is installed above the base 1, used to support the rotating cylinder 3 and the rotating assembly 4, forming the main mounting platform. The rotating cylinder 3 is arranged on the side of the fixed mounting plate 2, and can be used to cooperate with different processing actions to realize the rotation adjustment function of the clamping component. The rotating assembly 4 is installed on the inner side of the fixed mounting plate 2, and drives the rotating cylinder 3 and its upper structure to rotate precisely through a driving mechanism, so as to cooperate with the positioning requirements of the texture pattern.

[0023] The fixing mechanism 5 is installed at the peripheral position of the rotating assembly 4 and is used to effectively clamp glass products. An expansion mechanism 6 is arranged inside the fixing mechanism 5, and the expansion mechanism 6 is driven by the expansion rod 42 in the rotating assembly 4. When the expansion rod 42 makes an expansion and contraction movement, it drives the expansion block 61 located inside to move radially outwards. An annular fixing strip 611 and a vertical fixing strip 612 are connected to the outside of the expansion block 61. These two fixing elements are in firm contact with the inner wall of the glassware under the push of the expansion block 61. Through this structural design, glass products of different sizes or shapes (such as cup-shaped, conical or curved glass) can be clamped and supported by the same set of tooling, improving the versatility and adaptability of the device in the actual processing process. This multi-directional adaptive clamping method effectively solves the technical problem that traditional devices need to frequently replace fixtures when facing special-shaped glass, and the operation is more efficient and convenient.

[0024] As Figure 3 shown, the rotating assembly 4 includes a rotating shaft 41, an expansion rod 42 and a matching block 43. The rotating shaft 41 is installed in the middle of the fixed mounting plate 2 in the vertical direction and is stably rotated through a bearing assembly, and is used to drive the internal structure to rotate around the central axis. The expansion rod 42 is installed in the hollow structure of the rotating shaft 41 and can perform reciprocating telescopic movement along the axial direction inside the rotating shaft 41, so as to provide a linear driving force for the subsequent clamping action. The material of the expansion rod 42 is selected from high-strength alloy steel or stainless steel, which has good rigidity and anti-fatigue performance, ensuring its stability and durability during long-term operation. The matching block 43 is installed at the outermost end of the expansion rod 42 and is a key component connecting the expansion mechanism 6. Its surface is processed precisely and can be accurately fitted and transmit force with the subsequent installed expansion block 61, so as to ensure the synchronism and reliability of the clamping action. The rotating assembly 4 has a compact structure and high matching precision and is an important core component for the entire device to realize automatic clamping and transfer printing actions.

[0025] The expansion rods 42 are evenly distributed in an annular array around the rotating shaft 41, enabling them to achieve a symmetric and stable stress state during the telescopic movement. Each expansion rod 42 has an independent telescopic ability and can automatically adjust its length according to the actual size of the clamped glass, realizing precise adaptation and fixation of glass products of different shapes, effectively improving the stability and versatility of the clamping.

[0026] As Figure 4As shown, the fixing mechanism 5 includes multiple key structures such as a fixing cylinder 51, a rotating hole 52, a spacer 53, a receiving groove 54, and a telescopic hole 55, etc., which are used to achieve stable clamping and precise positioning of glass products. The fixing cylinder 51 is integrally installed on the external structure of the rotating assembly 4, playing a role of support and connection. Its structure is firm and can withstand various mechanical stresses during the clamping process. A rotating hole 52 is provided in the middle of the fixing cylinder 51, which cooperates with the rotating shaft 41 to ensure the flexible rotation function of the device during operation. A plurality of spacers 53 are installed on the side of the fixing cylinder 51. The spacers 53 are distributed at a certain distance from each other to form functional areas. A plurality of receiving grooves 54 are provided between the spacers 53. The receiving grooves 54 are arranged in a linear array, neatly and orderly, and are used to place and guide the movement of the telescopic assembly. A telescopic hole 55 is further provided inside each receiving groove 54. This hole provides a moving channel for the telescopic block 61, enabling it to move outward under the drive of the telescopic rod 42 and contact the inner wall of the glass. Through the above structure, the fixing mechanism 5 not only has a compact structure and reasonable layout, but also has good installation accuracy and operating stability, ensuring a reliable clamping effect of the overall device during the processing of multi-specification glass.

[0027] The cross-sectional shape of the receiving groove 54 is designed as a sector ring, presenting an arc-shaped structure, which can better adapt to the outer contour of cylindrical or conical glass products, thereby achieving a more fitting support and positioning effect. The receiving groove 54 is arranged between two adjacent spacers 53 and is evenly arranged through a reasonable distribution angle, which not only improves the guiding accuracy of the telescopic assembly, but also enhances the stability and force balance of the overall structure, providing a reliable support channel for subsequent clamping actions.

[0028] As Figure 5 As shown, a plurality of limiting blocks 531 are provided on the side of the spacer 53, which are used to limit the moving range of the telescopic assembly, prevent it from shifting or falling off during the working process, and ensure the stability and safety of the operation. The cross-sectional shape of the limiting block 531 is designed as a trapezoid, which helps to enhance the fitting firmness between it and the spacer 53, improving the structural strength and impact resistance. At the same time, a guiding groove 541 is provided on the inner side of the receiving groove 54, which is used to guide the telescopic block 61 to move smoothly along a predetermined path, improving the smoothness and positioning accuracy of the telescopic movement.

[0029] As Figure 6As shown in the figure, the telescopic mechanism 6 includes a plurality of structural components such as a telescopic block 61, a guiding strip 62, a limiting groove 63, a mounting hole 64, and a mounting groove 65, constituting a functionally complete and structurally compact adjustable clamping system. Among them, the telescopic block 61 is the core component, installed inside the receiving groove 54 of the fixing mechanism 5, responsible for axially moving under the drive of the telescopic rod 42 to achieve contact and fixation with the inner wall of the glass. The guiding strips 62 are respectively arranged on the upper and lower surfaces of the telescopic block 61, cooperating with the guiding grooves 541 in the receiving groove 54 to play a guiding role, ensuring that the telescopic block 61 always runs smoothly along the established path during the telescopic process, avoiding deflection or jamming. The limiting groove 63 is opened on the side surface of the telescopic block 61, used to cooperate with the spacer plate 53 or the limiting block 531 to limit its moving range and prevent damage caused by excessive extension. The mounting hole 64 is arranged on the inner side surface of the telescopic block 61 for connecting the telescopic rod 42 to ensure the reliability of power transmission. At the same time, a mounting groove 65 is also provided on the side surface of the mounting hole 64, facilitating the insertion of positioning pins or auxiliary parts to further enhance the connection stability and ensure reliable clamping and precise positioning under different working conditions.

[0030] As Figure 7 shown, the outer side surface of the telescopic block 61 is designed with two structures, an annular fixing strip 611 and a vertical fixing strip 612. These two fixing strips are evenly arranged in a linear array, capable of effectively supporting and fixing the glass product in multiple directions. The annular fixing strip 611 is distributed in a ring shape along the periphery of the telescopic block 61, mainly playing the role of surrounding and embracing the inner wall of the glass; while the vertical fixing strips 612 are arranged vertically to enhance the clamping force on a local area of the glass surface. Both the annular fixing strip 611 and the vertical fixing strip 612 are made of a soft and elastic rubber material, which can not only increase the friction during clamping to prevent the glass from sliding during clamping, but also effectively buffer the pressure to avoid scratching or damaging the glass surface caused by direct contact with hard materials. Between the annular fixing strip 611 and the vertical fixing strip 612, several cavity structures are formed, and these cavities can increase the elasticity and deformation space of the overall structure, making the clamping more flexible and adaptable to various glass shapes, further improving the versatility and clamping stability of the device.

[0031] A method for glass surface texture transfer processing, which is used in cooperation with the above-mentioned glass surface texture transfer processing device; it is characterized in that the steps of the method are as follows: S1: Before performing the glass surface texture transfer, use cleaning agents such as anhydrous ethanol and deionized water to remove oil stains, dust, and particulate impurities on the glass surface to ensure that the surface is free of contaminants; S2: The staff places the glass cup to be transferred on the outside of the telescopic mechanism 6, fixes the rotating cylinder 3 at the bottom of the glass cup. At this time, both sides of the bottom of the glass cup are fixed by the rotating cylinder 3 and the side surface of the fixing mechanism 5; S3: Start the rotating cylinder 3. The rotating cylinder 3 drives the glass and the fixing mechanism 5 to rotate rapidly. After rotating to a certain speed, the telescopic mechanism 6 installed on the fixing mechanism 5 moves outward under the influence of centrifugal force, so as to fit against the inner side of the cup wall for adaptive fixing. S4: Prepare a prefabricated silicone mold or metal stamping mold. A non-stick coating needs to be applied to the surface of the mold. Align the mold accurately with the surface of the glass substrate through the positioning device to ensure the precise alignment of the texture pattern. S4: After heating the mold, lower it so that it is located outside the glass cup to complete the transfer printing. After the texture pattern is cured or cooled, inspect the surface of the transferred glass to confirm that the pattern is clear, uniform, and defect-free.

[0032] During the working process of the present invention, the staff places the glass cup to be transferred on the outside of the telescopic mechanism 6 and fixes the rotating cylinder 3 at the bottom of the glass cup. At this time, both sides of the bottom of the glass cup are fixed by the side surfaces of the rotating cylinder 3 and the fixing mechanism 5. Start the rotating cylinder 3. The rotating cylinder 3 drives the glass and the fixing mechanism 5 to rotate rapidly. After rotating to a certain speed, the telescopic mechanism 6 installed on the fixing mechanism 5 moves outward under the influence of centrifugal force, so as to fit against the inner side of the cup wall for adaptive fixing. Prepare a prefabricated silicone mold or metal stamping mold. A non-stick coating needs to be applied to the surface of the mold. Align the mold accurately with the surface of the glass substrate through the positioning device to ensure the precise alignment of the texture pattern.

[0033] For those of ordinary skill in the art, various modifications to the present disclosure will be obvious, and the general principles defined herein can be applied to other variations without departing from the scope of the present disclosure. Therefore, the present disclosure is not limited to the examples and designs described herein, but should be given the widest scope consistent with the principles and novel features disclosed herein. Although one or more exemplary embodiments of the present disclosure have been described with reference to the accompanying drawings, those of ordinary skill in the art will understand that various changes in form and detail can be made therein without departing from the spirit and scope of the present disclosure as defined by the appended claims.

Claims

1. A glass surface texture transfer processing device, characterized in that, It includes a base (1), a fixed mounting plate (2), a rotating cylinder (3), a rotating assembly (4), a fixing mechanism (5) and a telescopic mechanism (6); The base (1) is installed on the ground, the fixed mounting plate (2) is installed on the base (1), the rotating cylinder (3) is installed on the side of the fixed mounting plate (2), the rotating assembly (4) is installed on the inner side of the fixed mounting plate (2), the fixing mechanism (5) is installed outside the rotating assembly (4), and the telescopic mechanism (6) is installed inside the fixing mechanism (5); the telescopic rod (42) in the rotating assembly (4) drives the telescopic mechanism (6) to expand and contract. The telescopic block (61) moves outward under the drive of the telescopic rod (42), and contacts the annular fixing strip (611), the vertical fixing strip (612) and the inner wall of the glass; thus, it can be adapted to fix and support glasses of different shapes.

2. A glass surface texture transfer processing device according to claim 1, characterized in that: The rotating assembly (4) includes a rotating shaft (41), a telescopic rod (42) and a mating block (43); The rotating shaft (41) is installed in the fixed mounting plate (2), the telescopic rod (42) is installed in the rotating shaft (41), and the mating block (43) is installed at the outermost end of the telescopic rod (42).

3. The glass surface texture transfer processing device according to claim 2, characterized in that: The telescopic rods (42) are arranged in an annular array and can be extended and retracted in length.

4. A glass surface texture transfer processing device according to claim 1, characterized in that: The fixing mechanism (5) includes a fixing cylinder (51), a rotating hole (52), a spacer plate (53), a receiving groove (54) and a telescopic hole (55); The fixing cylinder (51) is installed on the rotating assembly (4), the rotating hole (52) is opened in the middle of the fixing cylinder (51), the spacer plate (53) is arranged on the side of the fixing cylinder (51), the receiving grooves (54) are opened between the spacer plates (53), the receiving grooves (54) are arranged in a linear array, and the telescopic holes (55) are opened in the receiving grooves (54).

5. A glass surface texture transfer processing device according to claim 4, characterized in that: The cross-sectional shape of the receiving groove (54) is set as a sector ring, and the receiving groove (54) is arranged between two adjacent spacer plates (53).

6. The glass surface texture transfer processing device according to claim 4, characterized in that: The side of the spacer plate (53) is provided with a limiting block (531); the cross-sectional shape of the limiting block (531) is set as a trapezoid; a guiding groove (541) is opened on the inner side of the receiving groove (54).

7. A glass surface texture transfer processing device according to claim 1, characterized in that: The telescopic mechanism (6) includes a telescopic block (61), a guiding strip (62), a limiting groove (63) and a mounting hole (64); The telescopic block (61) is installed in the fixing mechanism (5), the guiding strips (62) are arranged on the upper and lower surfaces of the telescopic block (61), the limiting groove (63) is opened on the side of the telescopic block (61), and the mounting hole (64) is opened on the inner side of the telescopic block (61).

8. A glass surface texture transfer processing device according to claim 7, characterized in that: The telescopic mechanism (6) further includes a mounting groove (65), and the mounting groove (65) is opened on the side of the mounting hole (64).

9. The glass surface texture transfer processing device according to claim 7, characterized in that: The outer side of the telescopic block (61) is provided with an annular fixing strip (611) and a vertical fixing strip (612); The annular fixing strip (611) and the vertical fixing strip (612) are arranged in a linear array. The annular fixing strip (611) and the vertical fixing strip (612) are made of rubber, and a cavity is formed in the middle of the annular fixing strip (611) and the vertical fixing strip (612).

10. A method for transferring and processing glass surface textures, which is used in cooperation with a glass surface texture transfer and processing device according to any one of claims 1-9; characterized in that: The steps of the method are as follows: S1: Before transferring the texture on the glass surface, use cleaning agents such as anhydrous ethanol and deionized water to remove oil stains, dust and particulate impurities on the glass surface to ensure that the surface is free of pollutants; S2: The staff places the glass cup to be transferred on the outside of the telescopic mechanism (6), and fixes the rotating cylinder (3) at the bottom of the glass cup. At this time, both sides of the bottom of the glass cup are fixed by the rotating cylinder (3) and the side surface of the fixing mechanism (5); S3: Start the rotating cylinder (3). The rotating cylinder (3) drives the glass cup and the fixing mechanism (5) to rotate rapidly. After rotating to a certain speed, the telescopic mechanism (6) installed on the fixing mechanism (5) moves outward under the influence of centrifugal force, so as to fit to the inner side of the cup wall for adaptive fixing; S4: Prepare a prefabricated silicone mold or metal stamping mold. A non-stick coating needs to be applied to the surface of the mold. Align the mold accurately with the glass substrate surface through the positioning device to ensure the accurate alignment of the texture pattern; S4: After heating the mold, lower it so that it is located outside the glass cup to complete the transfer. After the texture pattern is cured or cooled, inspect the transferred glass surface to confirm that the pattern is clear, uniform and defect-free.

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