Positioning base for optical glass

Abstract

The invention provides a positioning base for optical glass, and belongs to the technical field of optical glass, the positioning base comprises a containing piece, the optical glass is placed in the containing piece, the containing piece is arranged on the positioning base, the optical glass is arranged in the containing piece, the containing piece comprises a containing block, and positioning pieces are arranged in the containing block in pairs. Optical glass is fixedly connected into the containing block through positioning pieces, and a pressing and pushing assembly is arranged on one side of the pair of positioning pieces. According to the positioning base, the problems that in the optical glass processing and cleaning stage of an existing positioning base for the optical glass, the placement orientation of the optical glass positioned on the base is inconvenient to convert, and synchronous cleaning operation on a plurality of pieces of optical glass on the positioning base in the same time period is inconvenient are solved; the cleaning efficiency of the optical glass and the conversion efficiency of the positioning base on the positioning and placing orientation of the optical glass are reduced.

Description

Technical Field

[0001] The invention belongs to the technical field of optical glass, and in particular relates to a positioning base for optical glass. Background Art

[0002] Optical glass is the foundation and important component of the optoelectronic industry. With the continuous integration of optics, information science and new material science, the application of optical glass in light transmission, light storage and other aspects has made great progress. During the stages of optical glass cleaning, processing output or testing, a positioning base is needed to position the optical glass.

[0003] The existing optical glass positioning base is not convenient for changing the orientation of the optical glass positioned on the base during the optical glass processing and cleaning stage, and is not convenient for performing synchronous cleaning operations on several optical glasses on the positioning base at the same time, thereby reducing the cleaning efficiency of the optical glass and the conversion efficiency of the positioning base for the positioning orientation of the optical glass. Summary of the invention

[0004] The present invention provides a positioning base for optical glass, which aims to solve the problem that the existing positioning base for optical glass is inconvenient to change the placement direction of the optical glass positioned on the base during the optical glass processing and cleaning stage, and it is inconvenient to perform synchronous cleaning operations on several optical glasses on the positioning base in the same period of time, thereby reducing the cleaning efficiency of the optical glass and the conversion efficiency of the positioning base for the positioning direction of the optical glass.

[0005] An embodiment of the present invention provides a positioning base for optical glass, comprising a container, in which the optical glass is placed, the container is mounted on a positioning base, in which the optical glass is placed, the container comprises a container block, in which positioning members are mounted in pairs, the optical glass is fixedly connected to the container block via the positioning members, and a push assembly is mounted on one side of a pair of the positioning members.

[0006] The containing block includes a support block, which is horseshoe-shaped. An opening is reserved on the support block at the locations closer to the two ends. The outer wall of the support block closer to the opening is fixedly connected to a linkage lever. The positioning base includes a rectangular supporting block. The containing piece is arranged in the supporting block. One end of the linkage lever is screwed to the inner wall of the supporting block.

[0007] A motor 1 is arranged at a point on one side of the supporting block which is closer to the center, and a receiving seat is arranged on the motor 1.

[0008] The positioning member comprises a first patch and a second patch, wherein a limit block is arranged at a point where the side walls of the first patch and the second patch touch each other, and one end of the first patch and the second patch is screwed onto the wall surface of the support block at the end closer to the opening, and one end of the first patch and the second patch touch each other.

[0009] The ends of the patch one and the patch two that are farther apart are each provided with a receiving opening, the receiving opening on the patch one is provided with a receiving opening, a horseshoe-shaped elastic bag is arranged in the receiving opening, the elastic bag is filled with gas, the side wall of the optical glass is arranged in the receiving opening, the ends of the patch one and the patch two that are closer to each other are provided with an installation opening, a connecting rod is fixedly connected in the installation opening, and a pair of the connecting rods are connected with a spiral beryllium copper wire one.

[0010] A spiral beryllium copper wire 2 is fixedly connected between the first pasting block and the supporting block. When the first pasting block is in contact with the optical glass, the second spiral beryllium copper wire is in a tightened state.

[0011] The push assembly includes a linkage block, a connecting rod is fixedly connected to one side of the linkage block adjacent to the positioning member at a position closer to both ends, a liquid stirring sheet is fixedly connected to the connecting rod, one end of the connecting rod is in contact with the outer wall surface of the sticking block, and elastic blocks are arranged in pairs at a position closer to the center of the linkage block, and the elastic blocks are in contact with the side walls of the optical glass.

[0012] One side of the center of the linkage block is fixedly connected to the installation block, a rotating opening is reserved on the installation block, an eccentric disk is installed in the rotating opening, a motor 2 is installed at one end of the eccentric disk, and the motor 2 is connected to the eccentric disk.

[0013] A limiting path is reserved at a place of the support block closer to the center, the linkage block and the installation block are slidably connected in the limiting path, the end of the support block farther from the limiting path is fixedly connected to the storage block, and the motor 2 is installed in the storage block.

[0014] A pair of adjacent containing parts on the supporting block are placed in opposite directions, and a weight compensation block is arranged on the supporting block at the lower end of the linkage lever.

[0015] The beneficial effects of the present invention are:

[0016] 1. The positioning base of the present invention rotates with the container, which is beneficial to changing the positioning direction of the optical glass. In the stage of optical glass production and processing, when the optical glass needs to be cleaned, the positioning base can rotate with the container in the cleaning liquid, and the cleaning liquid cleans the optical glass positioned in the container. Under normal conditions, the container is parallel to the corresponding bearing surface, which is beneficial to the positioning and placement of the optical glass and helps the subsequent processing, production or detection of the optical glass. The optical glass positioned on the container moves in the cleaning liquid, and the cleaning liquid moistens the stains on the wall of the optical glass, so that the container is The mounted parts and the optical glass have an inclination degree between the cleaning liquid and the bearing surface. The mounted parts and the optical glass will be subjected to different lubricating forces at different heights of the cleaning liquid, so that the mounted parts and the optical glass have different inclination degrees, and the optical glass is caused to rotate at different degrees in the cleaning liquid, thereby enhancing the cleaning efficiency of the cleaning liquid on the stains on the optical glass. The lubricating forces borne by optical glasses of different widths in the cleaning liquid are also different, so that the inclination degree of the optical glass in the cleaning liquid is also different, so that the optical glass is placed in a better orientation in the cleaning liquid, which is beneficial to the cleaning liquid to lubricate the stains on the optical glass.

[0017] 2. The motor of the present invention rotates the supporting block, and the supporting block rotates with the container, which is beneficial to changing the placement direction of the optical glass, and is beneficial to the conversion of the positioning placement direction of the optical glass, which helps the subsequent optical glass processing output or detection operations. In the stage of using a clean liquid to brush stains on the optical glass, the container and the optical glass are placed in the clean liquid and rotated, which is beneficial to improving the cleaning efficiency of the optical glass. The weight compensation block is used to convert the container to a position parallel to the bearing surface, so that the container and the optical glass can quickly return to a position parallel to the bearing surface after the placement direction is converted, which is beneficial for the operator to observe, detect and process the optical glass.

[0018] 3. According to the present invention, when the side wall of the optical glass extends into the accommodating opening and collides with the elastic bag, the elastic bag and the side wall of the optical glass abut against each other, so that the optical glass abuts against the elastic bag, and the abutted part of the elastic bag moves toward both ends, so that the elastic bag abuts against the upper and lower ends of the optical glass, thereby positioning the optical glass. This improves the stability of the positioning member abutting against the optical glass, and through the installation of the spiral beryllium copper wire 2, the pasting block 1 does not swing in the containing block. In the stage when the pasting block 1 abuts against the optical glass, the spiral beryllium copper wire 2 is in a tightened state, and the spiral beryllium copper wire 2 presses the pasting block 1, so that the pasting block 1 presses the optical glass outward, and the spiral beryllium copper wire 1 pulls the pasting block 2, so that the pasting block 2 presses the optical glass inward, thereby preventing the optical glass from moving outward and positioning the optical glass stably in the containing block.

[0019] 4. When the spiral beryllium copper wire 1 pulls the connecting rod, the spiral beryllium copper wire 1 is on one side of the central axis of the rotation connection between the first patch, the second patch and the support block, thereby enhancing the stability of the patch 2 and the pair of optical glasses. When the optical glass needs to be removed, the patch 2 is pressed outward, and the spiral beryllium copper wire 2 presses the patch 1 to move outward. With the rotation of the patch 2, the connecting rod on the patch 2 moves to the end farther from the patch 1, so that the distance between the pair of connecting rods becomes wider. After the patch 2 rotates to touch the side wall of the support block, the spiral beryllium copper wire 1 moves to the other end of the central axis of the rotation connection between the first patch, the second patch and the support block, so that the spiral beryllium copper wire 1 pulls the patch 2 to press against the support block, so that the patch 2 does not hinder the removal of the optical glass. Here, the spiral beryllium copper wire 2 presses the optical glass outward, which is beneficial for the operator to remove the optical glass.

[0020] 5. In the present invention, after the optical glass is moistened with the cleaning liquid, the dirt on the optical glass will fall below the cleaning liquid. During the stage when the supporting block causes the container and the optical glass to rotate in the cleaning liquid, the dirt below the cleaning liquid falls onto the optical glass, resulting in the dirt still adhering to the optical glass. Especially for the optical glass with marks on the wall, the reserved marks on the optical glass are more likely to hide dirt. Therefore, through the installation of the push-pushing assembly, during the stage of pushing the positioning member, the positioning member is changed in the position of the optical glass against which it is pressed, and the optical glass is rotated between a pair of positioning members, thereby changing the direction of the mark on the optical glass, so that when the cleaning liquid is moistened on the optical glass, the dirt in the mark on the optical glass is moistened and brushed away, thereby enhancing the conversion efficiency of the positioning and placement direction of the optical glass during the optical glass processing cleaning stage.

[0021] 6. In the stage of linkage block movement of the present invention, the connecting rod pushes the first sticking block, so that the sticking block guides the optical glass to move, the elastic block sticks to the optical glass, and promotes the optical glass to rotate slightly. In the stage of lateral movement of the linkage block, one connecting rod pushes the first sticking block, and the other connecting rod moves to the end farther from the other sticking block. The pushed sticking block rotates upward, so that the sticking block pushes the optical glass in a pair of positioning pieces, and the pushed optical glass moves to the oblique side farther from the linkage block. In the stage of optical glass movement, the optical glass squeezes the other sticking block, so that the sticking block rotates downward, the elastic block pushes the side wall of the optical glass, so that the optical glass moves laterally. In the stage of optical glass pushing the sticking block, the optical The optical glass is pushed by a pair of sticking blocks to rotate outward, and a space for the optical glass to move is reserved between a pair of positioning parts. The optical glass is then pushed laterally by the elastic block to rotate slightly between the pair of positioning parts. The rotated optical glass changes the direction of the imprint on the optical glass, which is beneficial to brush away the stains in the imprint on the optical glass. In the stage of reverse movement of the linkage block, the optical glass follows the reverse movement, causing the optical glass to rotate in the reverse direction. This cycle allows the optical glass to circulate and rotate in the cleaning liquid when the supporting block moves, which is beneficial to brush away the stains in the imprint on the optical glass, thereby enhancing the conversion efficiency of the optical glass positioning and placement direction and the cleaning efficiency of the optical glass in the optical glass processing cleaning stage.

[0022] Other features and advantages of the present invention will be described in the following description, and partly become apparent from the description, or understood through implementation of the present invention. The purpose and other advantages of the present invention can be realized and obtained through the structures particularly pointed out in the description and the drawings. BRIEF DESCRIPTION OF THE DRAWINGS

[0023] The accompanying drawings are used to provide a further understanding of the present invention and constitute a part of the specification. Together with the embodiments of the present invention, they are used to explain the present invention and do not constitute a limitation of the present invention. In the accompanying drawings:

[0024] Figure 1 It is a structural diagram of the positioning base of the present invention;

[0025] Figure 2 It is a structural diagram of the container in the present invention;

[0026] Figure 3 It is a structural diagram of the supporting block in the present invention;

[0027] Figure 4 It is a structural diagram of the containing block in the present invention;

[0028] Figure 5 It is a structural diagram of the push component in the present invention;

[0029] Figure 6It is a structural diagram of the positioning member in the present invention;

[0030] Figure 7 It is the structural diagram of the supporting block in the present invention;

[0031] Figure 8 It is a structural diagram of the opening arranged in the present invention;

[0032] Fig. 9 It is a structural diagram of the linkage block in the present invention;

[0033] Fig.10 It is a structural diagram of the positioning member and the push assembly in the present invention;

[0034] Fig.11 It is the structural diagram of the connecting rod in the present invention.

[0035] 1. Optical glass; 2. Positioning base; 3. Container; 22. Support block; 23. Motor 1; 24. Container; 32. Container block; 33. Positioning member; 34. Push assembly; 35. Weight compensation block; 322. Support block; 323. Linkage lever; 324. Limiting path; 325. Through opening; 326. Storage block; 332. Paste block 1; 333. Paste block 2; 334. Accommodation opening; 335. Spiral beryllium copper wire 1; 336. Storage opening; 337. Elastic bag; 338. Spiral beryllium copper wire 2; 339. Installation opening; 330. Connecting lever; 342. Linkage block; 343. Connecting lever; 344. Elastic block; 345. Installation block; 346. Off-axis disk; 347. Motor 2; 348. Liquid stirring sheet. DETAILED DESCRIPTION

[0036] In order to make the purpose, technical solution and advantages of the technical solution of the present invention clearer, the technical solution of the embodiment of the present invention will be clearly and completely described in conjunction with the drawings of specific embodiments of the present invention. The same figure marks in the drawings represent the same parts. It should be noted that the described embodiments are part of the embodiments of the present invention, not all of the embodiments. Based on the described embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0037] Reference Figure 1-Figure 11The embodiment of the present invention provides a positioning base for optical glass, comprising a container 3, in which an optical glass 1 is placed, and the container 3 is mounted on a positioning base 2. The positioning base 2 rotates with the container 3, which is beneficial to changing the positioning direction of the optical glass 1. In the stage of optical glass production and processing, when the optical glass needs to be cleaned, the container 3 can be rotated in a cleaning liquid through the positioning base 2, and the cleaning liquid cleans the optical glass positioned in the container 3. Under normal conditions, the container 3 is parallel to the corresponding bearing surface, which is beneficial to the positioning and placement of the optical glass, and helps the subsequent processing, output or detection of the optical glass.

[0038] The optical glass 1 positioned on the container 3 moves in the cleaning liquid, and the cleaning liquid moistens the stains on the wall surface of the optical glass 1, so that the container 3 and the optical glass 1 have a deflection range between the cleaning liquid and the supporting surface, and the container 3 and the optical glass 1 will be subjected to different lubricating forces at different heights of the cleaning liquid, so that the deflection ranges of the container 3 and the optical glass 1 are different, and the optical glass 1 rotates with different ranges in the cleaning liquid, thereby enhancing the cleaning efficiency of the cleaning liquid on the stains on the optical glass 1. The lubricating forces exerted by optical glasses 1 of different widths in the cleaning liquid are also different, so that the deflection ranges of the optical glass 1 in the cleaning liquid are also different, so that the optical glass 1 is placed in a better direction in the cleaning liquid, which is beneficial to the cleaning liquid to moisten the stains on the optical glass 1.

[0039] The container 3 includes a container block 32, and positioning members 33 are arranged in pairs in the container block 32. The optical glass 1 is fixedly connected to the container block 32 through a pair of positioning members 33. The container block 32 includes a support block 322. The support block 322 is horseshoe-shaped. A through hole 325 is reserved on the support block 322 near the two ends. The outer wall surface of the support block 322 near the through hole 325 is fixedly connected to a linkage rod 323. The linkage rod 323 is arranged at the equilibrium point after the container 3 is attached to the optical glass 1, so that after the container 3 is attached to the optical glass 1, the container 3 and the optical glass 1 can be parallel to the corresponding bearing surface. The positioning base 2 includes a rectangular supporting block 22. When the supporting block 22 is installed in the clean liquid, when the supporting block 22 is vertical to the liquid surface, the upper half of the supporting block 22 will be separated from the clean liquid. The container 3 is installed at In the supporting block 22, one end of the linkage rod 323 is screwed to the inner wall of the supporting block 22. When the placement direction of the container 3 is changed, the linkage rod 323 rotates in the supporting block 22. A motor 23 is installed at a point on one side of the supporting block 22 that is closer to the center. The motor 23 is beneficial to rotate the supporting block 22. A receiving seat 24 is installed on the motor 23. The receiving seat 24 is installed on the corresponding external supporting platform. The motor 23 rotates the supporting block 22, and the supporting block 22 rotates with the container 3, which is beneficial to changing the placement direction of the optical glass 1 and the positioning and placement direction of the optical glass, which helps the subsequent optical glass processing output or detection operations. In the stage of using cleaning liquid to brush stains on the optical glass 1, the container 3 and the optical glass 1 are placed in the cleaning liquid and rotated, which is beneficial to improving the cleaning efficiency of the optical glass.

[0040] A weight compensation block 35 is mounted on the support block 322 below the linkage lever 323. The weight compensation block 35 is used to convert the container (3) to a position parallel to the bearing surface, so that the container 3 and the optical glass 1 can quickly return to a position parallel to the bearing surface after the orientation is changed, which is beneficial for the operator to observe, detect and process the optical glass 1.

[0041] A pair of adjacent decoration components 3 on the supporting block 22 are placed in opposite directions, so that when the decoration components 3 are tilted, the pair of decoration components 3 rotate in the same direction, which is beneficial to improving the stability of the rotation of the supporting block 22.

[0042] The positioning member 33 includes a first pasting block 332 and a second pasting block 333. One end of the first pasting block 332 and the second pasting block 333 is screwed to the wall surface of the end of the support block 322 closer to the through-hole 325. One end of the first pasting block 332 and the second pasting block 333 is in contact with the wall surface. The ends of the first pasting block 332 and the second pasting block 333 that are farther apart from each other are reserved with a receiving opening 334. The side wall of the optical glass 1 is arranged in the receiving opening 334. The optical glass 1 is positioned by a pair of positioning members 33. The first pasting block 332 and the second pasting block 333 are screwed to the wall surface of the support block 322 that is closer to the through-hole 325. The first pasting block 332 and the second pasting block 333 are in contact with each other. The two blocks 333 are each provided with a mounting hole 339 at the end closer to each other, and a connecting rod 330 is fixedly connected to the mounting hole 339. A spiral beryllium copper wire 1 335 is connected between the pair of connecting rods 330 to change the distance between the two blocks 332 and 333, so that the spiral beryllium copper wire 1 335 pulls one end of the two blocks 333 to approach the one block 1 332, so that the two blocks 333 and the one block 1 332 can press the optical glass 1 against each other for positioning, thereby improving the stability of the positioning of the optical glass 1.

[0043] A receiving opening 336 is reserved on the receiving opening 334 on the pasting block 1 332, and a horseshoe-shaped elastic bag 337 is arranged in the receiving opening 336. The elastic bag 337 is filled with gas. When the side wall of the optical glass 1 extends into the receiving opening 334 and touches the elastic bag 337, the elastic bag 337 and the side wall of the optical glass 1 abut against the elastic bag 337, so that the optical glass 1 abuts against the elastic bag 337, and the part of the elastic bag 337 that is abutted moves to both ends, so that the elastic bag 337 abuts against the upper and lower ends of the optical glass 1, so that the optical glass 1 is positioned, thereby improving the stability of the positioning member 33 in abutting against the optical glass 1.

[0044] A spiral beryllium copper wire 2 338 is fixedly connected between the first patch 332 and the support block 322. The installation of the spiral beryllium copper wire 2 338 prevents the first patch 332 from swinging in the containing block 32. When the first patch 332 is in contact with the optical glass 1, the spiral beryllium copper wire 2 338 is in a tightened state. The spiral beryllium copper wire 2 338 presses the first patch 332, so that the first patch 332 presses the optical glass 1 outwards, and the spiral beryllium copper wire 1 335 pulls the second patch 333, so that the second patch 333 presses the optical glass 1 inwards, thereby preventing the optical glass 1 from moving outwards and stably positioning the optical glass 1 in the containing block 32.

[0045] The connecting rod 330 is fixedly connected to the installation opening 339 at a point far from the central axis of the rotation of the patch block 1 332, the patch block 2 333 and the support block 322. The pair of connecting rods 330 are separated from each other. When the spiral beryllium copper wire 1 335 pulls the connecting rod 330, the spiral beryllium copper wire 1 335 is located on one side of the central axis of the rotation of the patch block 1 332, the patch block 2 333 and the support block 322, thereby enhancing the stability of the patch block 2 333 and the patch block 1 332 against the optical glass 1. When the optical glass 1 needs to be removed, the patch block 2 333 is pressed outward, and the spiral beryllium copper wire 2 338 presses the patch block 1 332 to move outward, and then the patch block As the second block 333 rotates, the connecting rod 330 on the second block 333 moves toward the end farther from the first block 332, so that the distance between the pair of connecting rods 330 becomes wider. After the second block 333 rotates to touch the side wall of the support block 322, the spiral beryllium copper wire 1 335 moves to the other end of the central axis where the first block 332, the second block 333 and the support block 322 are rotated, so that the spiral beryllium copper wire 1 335 pulls the second block 333 to press against the support block 322, so that the second block 333 does not hinder the removal of the optical glass 1. Here, the spiral beryllium copper wire 2 338 presses the optical glass 1 outward, which is convenient for the operator to remove the optical glass 1.

[0046] Limiting blocks are installed at the points where the side walls of the first and second blocks 332 and 333 touch each other, so as to limit the rotation range of the first and second blocks 332 and 333 when they are in contact with the optical glass 1, so as to prevent the optical glass 1 from being damaged due to excessive contact between the first and second blocks 332 and 333.

[0047] A push assembly 34 is installed on one side of a pair of positioning members 33. After the optical glass 1 is moistened with cleaning liquid, the dirt on the optical glass 1 will fall below the cleaning liquid. When the supporting block 22 causes the container 3 and the optical glass 1 to rotate in the cleaning liquid, the dirt below the cleaning liquid falls onto the optical glass 1, resulting in the dirt still adhering to the optical glass 1. In particular, for optical glass with marks on the wall, the marks reserved on the optical glass are more likely to hide dirt. Therefore, through the installation of the push assembly 34, when the positioning member 33 is pushed, the position of the positioning member 33 against the optical glass 1 is changed, and the optical glass 1 is rotated between the pair of positioning members 33, so as to change the direction of the marks on the optical glass 1. When the cleaning liquid is moistened on the optical glass 1, the dirt in the marks on the optical glass 1 is moistened and removed, thereby enhancing the conversion efficiency of the positioning and placement direction of the optical glass 1 in the optical glass processing cleaning stage.

[0048] The push assembly 34 includes a linkage block 342. A side of the linkage block 342 adjacent to the positioning member 33 is fixedly connected to a connecting rod 343 at a position closer to both ends. One end of the connecting rod 343 is in contact with the outer wall of the first pasting block 332. Elastic blocks 344 are arranged in pairs at a position closer to the center of the linkage block 342. The elastic blocks 344 are in contact with the side walls of the optical glass 1. When the linkage block 342 is moving, the connecting rod 343 pushes the first pasting block 332 to guide the first pasting block 332 to move the optical glass 1. The elastic blocks 344 are in contact with the optical glass 1 to promote a small rotation of the optical glass 1.

[0049] In the stage of lateral movement of the linkage block 342, a connecting rod 343 pushes one end of the first block 332, and the other connecting rod 343 moves to the end farther from the other first block 332, and the pushed first block 332 rotates upward, so that the first block 332 pushes the optical glass 1 abutting against the pair of positioning members 33, and the pushed optical glass 1 moves to the oblique side farther from the linkage block 342. In the stage of movement of the optical glass 1, the optical glass 1 squeezes the other first block 332, so that the first block 332 rotates downward, and the elastic body block 344 pushes the side wall of the optical glass 1, so that the optical glass 1 moves laterally. In the stage when the optical glass 1 pushes the first block 332, the optical glass 1 pushes the pair of second blocks 333, so that the second block 333 rotates outward. The optical glass 1 is moved, and a space for the optical glass 1 to move is reserved between the pair of positioning members 33. The elastic body block 344 pushes the optical glass 1 laterally to make the optical glass 1 rotate slightly between the pair of positioning members 33. The rotated optical glass 1 changes the direction of the mark on the optical glass 1, which is beneficial to brush away the stains in the mark on the optical glass 1. In the stage where the linkage block 342 moves in the reverse direction, the optical glass 1 moves in the reverse direction to make the optical glass 1 rotate in the reverse direction. In this way, the optical glass 1 circulates and rotates in the cleaning liquid during the stage where the supporting block 22 moves, which is beneficial to brush away the stains in the mark on the optical glass 1, thereby enhancing the conversion efficiency of the positioning and placement direction of the optical glass 1 and the cleaning efficiency of the optical glass in the optical glass processing cleaning stage.

[0050] The connecting rod 343 is fixedly connected with a liquid stirring piece 348, which is conducive to stirring the cleaning liquid and enhancing the effect of washing the optical glass 1.

[0051] When the container 3, the optical glass 1 and the cleaning liquid are separated, the weight compensation block 35 allows the container 3 and the optical glass 1 to quickly return to a position parallel to the support surface, and some of the cleaning liquid blocked by the positioning member 33 is discharged through the opening 325, which is beneficial to discharge a small amount of cleaning liquid on the optical glass 1. During the rotation stage of the supporting block 22, it is beneficial to clean the other half of the optical glass 1, and it is beneficial to brush away the stains on the optical glass 1 on the container 3.

[0052] One side of the center of the linkage block 342 is fixedly connected to the mounting block 345, and a rotating opening is reserved on the mounting block 345, and an eccentric disk 346 is installed in the rotating opening. A motor 2 347 is installed at one end of the eccentric disk 346, and the motor 2 347 is connected to the eccentric disk 346. The eccentric disk 346 rotates and pushes the wall of the rotating opening. The upper and lower ends of the rotating opening are not attached to the eccentric disk 346. When the eccentric disk 346 rotates, the linkage block 342 is pushed sideways. To limit the moving path of the linkage block 342, a limiting path 324 is reserved at the support block 322 near the center, the linkage block 342 and the mounting block 345 are slidably connected in the limiting path 324, and the moving path of the linkage block 342 is limited via the limiting path 324. The end of the support block 322 farther from the limiting path 324 is fixedly connected to the storage block 326, and the motor 2 347 is mounted in the storage block 326, which is convenient for maintaining the motor 2 347.

[0053] The above shows and describes the basic principles and main features of the present invention and the advantages of the present invention. It should be understood by those skilled in the art that the present invention is not limited to the above embodiments. The above embodiments and descriptions are only for explaining the principles of the present invention. Without departing from the spirit and scope of the present invention, the present invention may have various changes and improvements, which fall within the scope of the present invention to be protected. The scope of protection of the present invention is defined by the attached claims and their equivalents.

Claims

1. A positioning base for optical glass, comprising a container (3), in which an optical glass (1) is placed, the container (3) is mounted on a positioning base (2), in which the optical glass (1) is placed, characterized in that: The container (3) comprises a container block (32), wherein positioning members (33) are arranged in pairs in the container block (32), and the optical glass (1) is fixedly connected to the container block (32) via the positioning members (33), and a push assembly (34) is arranged on one side of a pair of the positioning members (33).

2. The optical glass positioning base according to claim 1, characterized in that: The containing block (32) comprises a supporting block (322), the supporting block (322) is horseshoe-shaped, a through opening (325) is reserved on the supporting block (322) near the two ends, the outer wall surface of the supporting block (322) near the through opening (325) is fixedly connected to a linkage lever (323), the positioning base (2) comprises a rectangular supporting block (22), the containing member (3) is arranged in the supporting block (22), and one end of the linkage lever (323) is screwed to the inner wall surface of the supporting block (22).

3. The optical glass positioning base according to claim 2, characterized in that: A motor 1 (23) is mounted on one side of the supporting block (22) at a point closer to the center, and a receiving seat (24) is mounted on the motor 1 (23).

4. The optical glass positioning base according to claim 2, characterized in that: The positioning member (33) comprises a first sticking block (332) and a second sticking block (333), and a limiting block is arranged at a point where the side walls of the first sticking block (332) and the second sticking block (333) touch each other. One end of the first sticking block (332) and the second sticking block (333) are screwed onto the wall surface of the support block (322) which is closer to the through opening (325), and one end of the first sticking block (332) and the second sticking block (333) touch each other.

5. The optical glass positioning base according to claim 4, characterized in that: The ends of the patch 1 (332) and the patch 2 (333) that are farther apart are each provided with a receiving opening (334), the receiving opening (334) on the patch 1 (332) is provided with a receiving opening (336), a horseshoe-shaped elastic bag (337) is arranged in the receiving opening (336), the elastic bag (337) is filled with gas, the side wall of the optical glass (1) is arranged in the receiving opening (334), the ends of the patch 1 (332) and the patch 2 (333) that are closer to each other are each provided with a mounting opening (339), a connecting rod (330) is fixedly connected in the mounting opening (339), and a spiral beryllium copper wire 1 (335) is connected between the pair of connecting rods (330).

6. The optical glass positioning base according to claim 4, characterized in that: A spiral beryllium copper wire 2 (338) is fixedly connected between the first pasting block (332) and the supporting block (322). When the first pasting block (332) is in contact with the optical glass (1), the spiral beryllium copper wire 2 (338) is in a tightened state.

7. The optical glass positioning base according to claim 6, characterized in that: The push assembly (34) comprises a linkage block (342). A connecting rod (343) is fixedly connected to one side of the linkage block (342) adjacent to the positioning member (33) at a position closer to both ends. A liquid stirring piece (348) is fixedly connected to the connecting rod (343). One end of the connecting rod (343) is in contact with the outer wall surface of the contact block (332). Elastic blocks (344) are arranged in pairs at a position closer to the center of the linkage block (342). The elastic blocks (344) are in contact with the side wall of the optical glass (1).

8. The optical glass positioning base according to claim 7, characterized in that: One side of the center of the linkage block (342) is fixedly connected to a mounting block (345), a rotation opening is reserved on the mounting block (345), an eccentric disk (346) is mounted in the rotation opening, a second motor (347) is mounted at one end of the eccentric disk (346), and the second motor (347) is connected to the eccentric disk (346).

9. The optical glass positioning base according to claim 8, characterized in that: A limiting path (324) is reserved at a location closer to the center of the support block (322); the linkage block (342) and the mounting block (345) are slidably connected in the limiting path (324); the end of the support block (322) farther from the limiting path (324) is fixedly connected to a storage block (326); and the motor 2 (347) is mounted in the storage block (326).

10. The optical glass positioning base according to claim 3, characterized in that: A pair of adjacent containers (3) on the supporting block (22) are placed in opposite directions, and a weight compensation block (35) is installed on the support block (322) below the linkage lever (323).

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