Conveying device for glass processing

Abstract

The invention provides a conveying device for glass processing, which belongs to the technical field of conveying devices and comprises a base and a bearing table, and a carrier is fixedly connected to the upper portion of the bearing table. The conveying device solves the problems that when an existing conveying device for glass processing is used in a glass processing plant, antifriction maintenance is inconvenient to conduct on a base on the lower portion of the device, a maintainer usually needs to smear an antifriction medium on the base by himself, the continuous operation efficiency of a conveying line is not improved, and the production cost is lowered. And the glass conveying stability is easily reduced due to non-uniform coating of the antifriction medium.

Description

Technical Field

[0001] This invention belongs to the field of conveying device technology, and specifically relates to a conveying device for glass processing. Background Technology

[0002] Glass is an amorphous inorganic non-metallic material, formed by rapidly cooling and solidifying molten silicon dioxide and other raw materials. It does not have a fixed crystal structure, and in its mass production stage, it usually needs to be transported to designated workstations using conveying devices.

[0003] When existing glass processing conveying devices are used in glass processing plants, it is inconvenient to perform friction-reducing maintenance on the base of the device. Usually, maintenance personnel need to apply the friction-reducing medium to the base themselves, which is not only detrimental to improving the continuous operation efficiency of the conveyor line, but also easily reduces the stability of glass conveying due to uneven application of the friction-reducing medium. Summary of the Invention

[0004] This invention provides a conveying device for glass processing, which aims to solve the problem that existing glass processing conveying devices are inconvenient to maintain by applying friction-reducing media to the base of the device when used in glass processing plants. Usually, maintenance personnel need to apply the friction-reducing medium to the base by themselves, which is not only detrimental to improving the continuous operation efficiency of the conveying line, but also easily reduces the stability of glass conveying due to uneven application of the friction-reducing medium.

[0005] This invention provides a conveying device for glass processing, comprising a base and a support platform. The support platform is slidably connected to the base, and a carrying rack is fixedly connected to the upper part of the support platform. A first inner chamber is reserved inside the support platform, and a first through-hole is reserved on the lower wall of the support platform, communicating with the first inner chamber. An assembly box is fixedly connected to the side wall of the support platform, and a holding box is fixedly connected to the side wall of the assembly box. A transfer unit and a suction unit are assembled in the assembly box.

[0006] Furthermore, the transmission unit includes a motor assembled in an assembly box, a connecting rod rotatably connected inside the assembly box, a disc fixed to the outer wall of the connecting rod, and the connecting rod and the motor connected via a transmission component.

[0007] Furthermore, the suction unit includes an isolation cavity fixedly connected to the assembly box, a connecting block fixedly connected between the isolation cavity and the assembly box, a through groove reserved on the isolation cavity, an elastic sheet fixedly connected in the through groove, a first suction block fixedly connected to the disc, a second suction block fixedly connected to the elastic sheet, the first suction block and the second suction block corresponding to each other, the first suction block and the second suction block having the characteristic of attracting iron, cobalt and nickel, a pair of first channels connected to the isolation cavity, one of the first channels connected to the container box, and the other first channel connected to the first inner chamber, the first channel being provided with a check valve.

[0008] Furthermore, the support platform has a second inner chamber reserved, and the lower wall of the support platform has a second through-hole reserved, which is connected to the second inner chamber. The assembly box is equipped with a drainage unit.

[0009] Furthermore, the flow-guiding unit includes an assembly box fixed in the assembly box, the assembly box having multiple through slots, a flow-guiding component fixed to the output end of the motor, the flow-guiding component being located in the assembly box, and a second channel being connected to the assembly box, the portion of the second channel opposite to the assembly box being connected to the second inner chamber.

[0010] Furthermore, each side of the base is equipped with a receiving unit, which includes a right-angled block fixed to the side wall of the base. The right-angled block has a reserved inner cavity and a reserved receiving interface. The receiving interface has multiple reserved third through holes, which are connected to the inner cavity of the right-angled block. A third suction block is slidably connected to the receiving interface. There are gaps between the two sides of the third suction block and the receiving interface. The third suction block has multiple reserved fourth through holes. An energy storage element is provided on the right-angled block, and the other side of the energy storage element is connected to the third suction block.

[0011] Furthermore, a linkage unit is assembled on the right-angled block.

[0012] Furthermore, the linkage unit includes a sleeve rotatably connected to the receiving interface, the sleeve is provided with a stud, and a cam is fixedly connected to the sleeve, the cam corresponding to the third suction block.

[0013] Furthermore, the lower wall of the support platform is provided with a receiving opening, and a rotating ball is provided in the receiving opening. The rotating ball extends out of the receiving opening, and the part of the rotating ball extending out of the receiving opening contacts the base.

[0014] Furthermore, the output end of the motor extends into the container, and a mixing blade is mounted on the output end of the motor.

[0015] The beneficial effects of this invention are: 1. In the glass conveying stage of this invention, to ensure smoother transfer, the lower base needs maintenance. Therefore, it is necessary to ensure timely replenishment of the friction-reducing medium. During the rotation of the disc carrying the first suction block, when the first suction block moves to correspond with the second suction block, the first and second suction blocks attract each other due to their opposite polarity, causing the second suction block to come closer to the first suction block. The movement of the second suction block causes the elastic sheet to protrude out of the isolation cavity, resulting in an increase in the closed cavity between the isolation cavity and the elastic sheet, which facilitates the introduction of the friction-reducing medium into the isolation cavity. When the first and second suction blocks no longer correspond, the elastic sheet returns to its original shape. This reduces the size of the closed cavity between the isolation chamber and the elastic plate, facilitating the discharge of the friction-reducing medium from the isolation chamber. The fluid flow directions of the pair of check valves are opposite; one check valve only allows the friction-reducing medium to enter the isolation chamber, while the other check valve only allows the friction-reducing medium to exit from the isolation chamber. Therefore, during the rotational movement of the first suction block, the isolation chamber can draw in the friction-reducing medium contained in the container and squeeze it into the first inner chamber. The friction-reducing medium can then enter the base through the first through-hole. As the support platform moves on the base, the friction-reducing medium can be applied to the base, facilitating the replenishment of the friction-reducing medium.

[0016] 2. This invention places the glass to be processed or processed into a carrier rack for safe transport. During the glass transport phase, the base is maintained by activating a motor that drives a guide component to rotate. Multiple rotating blades in the guide component facilitate the extraction of gaseous fluid, which is then drawn into the external gaseous fluid through multiple perforations. The rotating guide component then guides the gaseous fluid into the second inner chamber through a second channel, causing it to pass through a second through-hole onto the base. The gaseous fluid pushes the friction-reducing medium on the base, causing it to move along the base and spread evenly. This eliminates the need for maintenance personnel to manually apply the friction-reducing medium to the base, improving the continuous operation efficiency of the conveyor line and preventing uneven coating of the friction-reducing medium from reducing the stability of glass transport.

[0017] 3. In this invention, the cam and the sleeve are not coaxially arranged. The cam corresponds to the third suction block. When adding the friction-reducing medium, the maintenance personnel rotate the stud, which rotates the sleeve and then rotates the cam. The cam pushes the third suction block, causing the third suction block to move on the bearing interface. When the third suction block rotates from the part away from the cam to the side of the bearing interface, it is beneficial to align the fourth through hole with the third through hole.

[0018] Other features and advantages of the invention will be set forth in the following description, and will be apparent in part from the description, or may be learned by practicing the invention. The objects and other advantages of the invention may be realized and obtained by means of the structures particularly pointed out in the description and the drawings. Attached Figure Description

[0019] The accompanying drawings are provided to further illustrate the invention and form part of the specification. They are used together with the embodiments of the invention to explain the invention and do not constitute a limitation thereof. In the drawings: Figure 1 This is an overall structural diagram of the conveying device of the present invention; Figure 2 This is a structural diagram of the base of the present invention; Figure 3 This is a structural diagram of the support platform of the present invention; Figure 4 This is a structural diagram of the transmission unit of the present invention; Figure 5 This is a structural diagram of the drainage unit of the present invention; Figure 6 This is a structural diagram of the hybrid blade of the present invention; Figure 7 This is a structural diagram of the first channel of the present invention; Figure 8 This is a structural diagram of the disk of the present invention; Figure 9 This is a structural diagram of the receiving unit of the present invention; Figure 10 This is a structural diagram of the right-angled block of the present invention; Figure 11 For the present invention Figure 10 I-region structure diagram; Figure 12 For the present invention Figure 8 The structure diagram of region II.

[0020] Figure label: 100. Base; 101. Support platform; 102. Assembly box; 103. Container box; 104. Shelf; 105. Reception opening; 106. Rotating ball; 200. Transmission unit; 201. Hybrid blade; 202. First inner chamber; 203. First through-hole; 204. Second inner chamber; 205. Second through-hole; 206. Motor; 207. Connecting rod; 208. Disc; 209. Transmission component; 300. Suction unit; 301. Check gate; 302. Isolation cavity; 303. Through slot; 304. Elastic piece; 305. First suction block; 306. Second suction block; 307. First channel; 400. Drainage unit; 401. Drainage component; 402. Second channel; 403. Assembly box; 404. Through slot; 500. Receiving unit; 501. Energy storage component; 502. Right-angle block; 503. Receiving interface; 504. Third through-hole; 505. Third suction block; 506. Fourth through-hole; 600, linkage unit; 601, cam; 602, sleeve; 603, stud. Detailed Implementation

[0021] To make the objectives, technical solutions, and advantages of the present invention clearer, the technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. The same reference numerals in the drawings represent the same components. It should be noted that the described embodiments are only some, not all, of the embodiments of the present invention. All other embodiments obtained by those skilled in the art based on the described embodiments of the present invention without creative effort are within the scope of protection of the present invention.

[0022] Reference Figures 1-12 This invention provides a glass processing conveying device, comprising a base 100 and a support platform 101. The support platform 101 is slidably mounted on the base 100. A carrying rack 104 is fixedly connected to the upper part of the support platform 101 for carrying glass to be processed and processed glass. The lower wall of the support platform 101 has a pre-reserved receiving opening 105. A rotating ball 106 is provided in the receiving opening 105, extending out of the receiving opening 105. The portion of the rotating ball 106 extending out of the receiving opening 105 contacts the base 100. The rotating ball 106 is mounted... It is designed to leave a gap between the support platform 101 and the base 100 to prevent the base 100 from blocking the first through-hole 203 and the second through-hole 205, so as to facilitate the discharge of the friction-reducing medium and the gaseous fluid. The support platform 101 has a first inner chamber 202. The lower wall of the support platform 101 has a first through-hole 203 that is connected to the first inner chamber 202. An assembly box 102 is fixed to the side wall of the support platform 101. A container box 103 is fixed to the side wall of the assembly box 102. The container box 103 is used to hold the friction-reducing medium.

[0023] The assembly box 102 is equipped with a transmission unit 200, which includes a motor 206 installed inside the assembly box 102. A connecting rod 207 is rotatably connected inside the assembly box 102. A disc 208 is fixed to the outer wall of the connecting rod 207. The connecting rod 207 and the motor 206 are connected via a transmission component 209. The motor 206 causes the connecting rod 207 and the disc 208 to rotate via the transmission component 209. The transmission component 209 transmits the load via a belt. The output end of the motor 206 extends into the container 103. A mixing blade 201 is installed on the output end of the motor 206. The motor 206 rotates with the mixing blade 201 to mix the friction-reducing medium in the container 103.

[0024] The assembly box 102 is equipped with a suction unit 300. The suction unit 300 includes an isolation cavity 302 fixedly connected to the assembly box 102. A connecting block is fixedly connected between the isolation cavity 302 and the assembly box 102. A through groove 303 is reserved on the isolation cavity 302. An elastic piece 304 is fixedly connected in the through groove 303. A first suction block 305 is fixedly connected to the disc 208. A second suction block 306 is fixedly connected to the elastic piece 304. The first suction block 305 and the second suction block 306 correspond to each other. The first suction block 305 and the second suction block 306 have the characteristics of attracting iron, cobalt and nickel. A pair of first channels 307 are connected to the isolation cavity 302. One of the first channels 307 is connected to the container 103. The other first channel 307 is connected to the first inner chamber 202. A check valve 301 is provided on the first channel 307.

[0025] During the rotation of the disk 208 carrying the first suction block 305, when the first suction block 305 moves to correspond with the second suction block 306, the first suction block 305 and the second suction block 306 attract each other due to their opposite polarity, causing the second suction block 306 to come closer to the first suction block 305. The movement of the second suction block 306 causes the elastic piece 304 to protrude outward from the isolation cavity 302, resulting in an increase in the closed cavity between the isolation cavity 302 and the elastic piece 304, which facilitates the introduction of the friction-reducing medium into the isolation cavity 302. When the first suction block 305 and the second suction block 306 do not correspond, the elastic piece 304 returns to its original shape, causing the closed cavity between the isolation cavity 302 and the elastic piece 304 to decrease. The isolation chamber 302 facilitates the discharge of the friction-reducing medium. The fluid flow directions of the pair of check valves 301 are opposite. One check valve 301 only allows the friction-reducing medium to be guided into the isolation chamber 302, while the other check valve 301 only allows the friction-reducing medium to be discharged from the isolation chamber 302. Therefore, during the rotational movement of the first suction block 305, the isolation chamber 302 can suck in the friction-reducing medium contained in the container 103 and squeeze the friction-reducing medium into the first inner chamber 202. The friction-reducing medium can then enter the base 100 through the first through-hole 203. The support platform 101 moves on the base 100, and the friction-reducing medium can be applied to the base 100, which facilitates the replenishment of the friction-reducing medium.

[0026] The support platform 101 has a reserved second inner chamber 204, and the lower wall of the support platform 101 has a reserved second through opening 205, which is connected to the second inner chamber 204. The assembly box 102 is equipped with a flow guiding unit 400, which includes an assembly box 403 fixed in the assembly box 102. The assembly box 403 has multiple through slots 404 reserved. The output end of the motor 206 is fixed with a flow guiding component 401, which is located in the assembly box 403. The assembly box 403 has a second channel 402 connected to it, and the part of the second channel 402 away from the assembly box 403 is connected to the second inner chamber 204. The motor 206 rotates the guide component 401. Multiple rotating blades in the guide component 401 facilitate the extraction of gaseous fluid. The gaseous fluid is drawn in through multiple through-holes 404. The rotating guide component 401 then guides the gaseous fluid into the second inner chamber 204 through the second channel 402. The gaseous fluid then passes through the second through-hole 205 onto the base 100. The gaseous fluid pushes the anti-friction medium on the base 100, causing it to move along the base 100. This allows the anti-friction medium to be applied to the base 100 without the need for maintenance personnel to apply the anti-friction medium themselves, which helps improve the continuous operation efficiency of the conveyor line and prevents the glass conveying stability from being reduced due to uneven coating of the anti-friction medium.

[0027] Both sides of the base 100 are equipped with receiving units 500. Each receiving unit 500 includes a right-angled block 502 fixed to the side wall of the base 100. The right-angled block 502 has a reserved inner cavity and a receiving interface 503. The receiving interface 503 has multiple third through holes 504 that communicate with the inner cavity of the right-angled block 502. A third suction block 505 is slidably connected to the receiving interface 503. A gap is reserved between the two sides of the third suction block 505 and the receiving interface 503. The third suction block 505 has the property of attracting iron, cobalt, and nickel. The part of the right-angle block 502 that contacts the third suction block 505 is made of a material with significant magnetic susceptibility. The right-angle block 502 and the third suction block 505 can attract each other. The third suction block 505 has multiple fourth through holes 506. The right-angle block 502 is provided with an energy storage component 501. The other side of the energy storage component 501 is connected to the third suction block 505. The friction-reducing medium on the base 100 enters the right-angle block 502 through the third through hole 504 and the fourth through hole 506, which is conducive to receiving the excess friction-reducing medium and to the efficient utilization of the friction-reducing medium.

[0028] A linkage unit 600 is mounted on the right-angle block 502. The linkage unit 600 includes a sleeve 602 rotatably connected to the receiving interface 503. A stud 603 is provided on the sleeve 602, and a cam 601 is fixedly connected to the sleeve 602. The cam 601 and the sleeve 602 are not coaxially arranged. The cam 601 corresponds to the third suction block 505. When adding friction-reducing medium, the maintenance personnel rotate the stud 603, which rotates the sleeve 602, and then rotates the cam 601. The cam 601 pushes the third suction block 505, causing the third suction block 505 to move on the receiving interface 503. When the third suction block 505 rotates from the part away from the cam 601 to the side of the receiving interface 503, it facilitates the alignment of the fourth through hole 506 and the third through hole 504.

[0029] The specific implementation method is as follows: During operation, the glass to be processed or processed is placed in the carrier 104 for safe transport. During the glass transport phase, to ensure smoother transport, the lower base needs maintenance, thus requiring timely replenishment of the friction-reducing medium. The motor 206 is activated, and via the transmission member 209, the motor 206 causes the connecting rod 207 and the disc 208 to rotate. During the rotation of the disc 208 carrying the first suction block 305, when the first suction block 305 moves to correspond with the second suction block 306, the first and second suction blocks 305 attract each other due to their opposite polarity, causing the second suction block 306 to come into close contact with the first suction block 305. The movement of the second suction block 306 causes the elastic piece 304 to protrude outward from the isolation cavity 302, resulting in an enlarged closed cavity between the isolation cavity 302 and the elastic piece 304, which facilitates the isolation cavity 302... When the friction-reducing medium is introduced, if the first suction block 305 and the second suction block 306 do not correspond, the elastic plate 304 returns to its original state, causing the closed cavity between the isolation cavity 302 and the elastic plate 304 to become smaller. This facilitates the discharge of the friction-reducing medium from the isolation cavity 302. The fluid flow directions of the pair of check valves 301 are opposite. One check valve 301 only allows the friction-reducing medium to be guided into the isolation cavity 302, while the other check valve 301 only allows the friction-reducing medium to be discharged from the isolation cavity 302. Therefore, during the rotational movement of the first suction block 305, the isolation cavity 302 can draw in the friction-reducing medium contained in the container 103 and squeeze the friction-reducing medium into the first inner chamber 202. The friction-reducing medium can then enter the base 100 through the first through-hole 203. The support platform 101 moves on the base 100, and the friction-reducing medium can be applied to the base 100, which facilitates the replenishment of the friction-reducing medium.

[0030] The motor 206 rotates the guide component 401. Multiple rotating blades in the guide component 401 facilitate the extraction of gaseous fluid. The gaseous fluid is drawn in through multiple through-holes 404. The rotating guide component 401 then guides the gaseous fluid into the second inner chamber 204 through the second channel 402. The gaseous fluid is then directed to the base 100 through the second through-hole 205. The gaseous fluid pushes the friction-reducing medium on the base 100, causing it to move along the base 100. This allows the friction-reducing medium to be applied to the base 100 without the need for a maintenance worker to apply the friction-reducing medium to the base 100.

[0031] The friction-reducing medium on the base 100 enters the right-angle block 502 through the third through-hole 504 and the fourth through-hole 506, which is conducive to receiving excess friction-reducing medium and to the efficient use of friction-reducing medium. When replenishing friction-reducing medium, the maintenance personnel rotate the stud 603, which rotates the sleeve 602, and then rotates the cam 601. The cam 601 pushes the third suction block 505, causing the third suction block 505 to move on the receiving interface 503. When the third suction block 505 rotates from the part away from the cam 601 to the side of the receiving interface 503, it is conducive to the alignment of the fourth through-hole 506 and the third through-hole 504.

[0032] The right-angle block 502 has a pre-drilled slot that connects to the inner cavity of the right-angle block 502, and a plug is installed in the slot. The maintenance worker removes the plug from the slot to guide the friction-reducing medium that is received in the right-angle block 502 away, which facilitates the efficient use of the friction-reducing medium.

[0033] The third suction block 505 has the property of attracting iron, cobalt, and nickel. The part of the right-angle block 502 that contacts the third suction block 505 is made of a material with significant magnetic susceptibility. The right-angle block 502 and the third suction block 505 can attract and stick to each other. Under the pushing of the cam 601, the third suction block 505 can move on the right-angle block 502. The third suction block 505 does not separate from the right-angle block 502, which improves the smoothness of the movement of the third suction block 505. An energy storage component 501 is installed between the third suction block 505 and the right-angle block 502. After the anti-friction medium is coated, the maintenance personnel rotate the stud 603 to make the cam 601 rotate until the cam 601 stops pushing the third suction block 504. Then the energy storage component 501 will take the third suction block 505 back to its original position. Here, the third through-hole 504 and the fourth through-hole 506 do not correspond to each other, which prevents gaseous fluid from entering the right-angle block 502 to prevent changes in the properties of the anti-friction medium.

[0034] The motor 206 drives the mixing blade 201 to rotate so as to mix the friction-reducing medium in the container 103.

[0035] The support platform 101 has a pre-reserved receiving port 105, and a rotating ball 106 is provided in the receiving port 105. During the stage when the support platform 101 moves on the base 100, the rotating ball 106 contacts the base 100, which enhances the smoothness of the movement of the support platform 101 and also helps to leave a gap between the support platform 101 and the base 100 to prevent the base 100 from blocking the first through-hole 203 and the second through-hole 205, which is conducive to the discharge of friction-reducing medium and gaseous fluid.

[0036] The foregoing has shown and described the basic principles, main features, and advantages of the present invention. Those skilled in the art should understand that the present invention is not limited to the above embodiments. The embodiments and descriptions in the specification are merely illustrative of the principles of the invention. Various changes and modifications can be made to the invention without departing from its spirit and scope, and all such changes and modifications fall within the scope of the present invention as claimed. The scope of protection of this invention is defined by the appended claims and their equivalents.

Claims

1. A conveying device for glass processing, comprising a base (100) and a support platform (101), wherein the support platform (101) is slidably mounted on the base (100), characterized in that, A carrying rack (104) is fixedly connected to the upper part of the carrying platform (101). A first inner chamber (202) is reserved inside the carrying platform (101). A first through-hole (203) is reserved on the lower wall of the carrying platform (101). The first through-hole (203) is connected to the first inner chamber (202). An assembly box (102) is fixedly connected to the side wall of the carrying platform (101). A container box (103) is fixedly connected to the side wall of the assembly box (102). A transfer unit (200) is installed in the assembly box (102). A suction unit (300) is installed in the assembly box (102).

2. The glass processing conveying device according to claim 1, characterized in that, The transmission unit (200) includes a motor (206) assembled in an assembly box (102), a connecting rod (207) rotatably connected inside the assembly box (102), a disc (208) fixed to the outer wall of the connecting rod (207), and the connecting rod (207) and the motor (206) are connected via a transmission member (209).

3. The glass processing conveying device according to claim 2, characterized in that, The suction unit (300) includes an isolation cavity (302) fixedly connected to the assembly box (102). A connecting block is fixedly connected between the isolation cavity (302) and the assembly box (102). A through groove (303) is reserved on the isolation cavity (302). An elastic piece (304) is fixedly connected in the through groove (303). A first suction block (305) is fixedly connected to the disc (208). A second suction block (306) is fixedly connected to the elastic piece (304). 305) Corresponding to the second suction block (306), the first suction block (305) and the second suction block (306) have the characteristics of attracting iron, cobalt and nickel. The isolation cavity (302) is connected to a pair of first channels (307). One of the first channels (307) is connected to the container (103), and the other first channel (307) is connected to the first inner chamber (202). The first channel (307) is provided with a check valve (301).

4. The glass processing conveying device according to claim 1, characterized in that, The support platform (101) has a reserved second inner chamber (204), and the lower wall of the support platform (101) has a reserved second through hole (205). The second through hole (205) is connected to the second inner chamber (204), and the assembly box (102) is equipped with a drainage unit (400).

5. A glass processing conveying device according to claim 4, characterized in that, The drainage unit (400) includes an assembly box (403) fixed in the assembly box (102). The assembly box (403) has multiple through slots (404) reserved on it. A drainage component (401) is fixed on the output end of the motor (206). The drainage component (401) is located in the assembly box (403). A second channel (402) is connected to the assembly box (403). The part of the second channel (402) away from the assembly box (403) is connected to the second inner chamber (204).

6. A conveying device for glass processing according to claim 1, characterized in that, The base (100) is equipped with receiving units (500) on both sides. Each receiving unit (500) includes a right-angle block (502) fixed to the side wall of the base (100). The right-angle block (502) has a reserved inner cavity and a reserved receiving interface (503). The receiving interface (503) has multiple reserved third through holes (504). The third through holes (504) are connected to the right-angle block. The inner cavity of (502) is connected, and a third suction block (505) is slidably connected on the receiving interface (503). There is a gap between the two sides of the third suction block (505) and the receiving interface (503). There are multiple fourth through holes (506) reserved on the third suction block (505). An energy storage component (501) is provided on the right-angle block (502). The other side of the energy storage component (501) is connected to the third suction block (505).

7. A glass processing conveying device according to claim 6, characterized in that, The right-angle block (502) is equipped with a linkage unit (600).

8. A glass processing conveying device according to claim 7, characterized in that, The linkage unit (600) includes a sleeve (602) rotatably connected to the receiving interface (503), the sleeve (602) is provided with a stud (603), and a cam (601) is fixedly connected to the sleeve (602), the cam (601) corresponding to the third suction block (505).

9. A conveying device for glass processing according to claim 1, characterized in that, The lower wall of the support platform (101) is provided with a receiving opening (105), and a rotating ball (106) is provided in the receiving opening (105). The rotating ball (106) extends out of the receiving opening (105), and the part of the rotating ball (106) extending out of the receiving opening (105) contacts the base (100).

10. A conveying device for glass processing according to claim 2, characterized in that, The output end of the motor (206) extends into the container (103), and a hybrid blade (201) is mounted on the output end of the motor (206).

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