Optical lens processing waste transport device

Abstract

This invention discloses a waste conveying device for optical lens processing, relating to the field of cargo conveying technology. It includes a support frame, on which a driven roller and a driving roller are mounted. Side plates are fixedly mounted on both sides of the support frame, and a first baffle and a second baffle are fitted between the two side plates. A dust removal component is also fitted between the two side plates. The dust removal component includes two rotating seats, which are respectively embedded in the two side plates. A hollow rotating roller is rotatably mounted inside each rotating seat. A conveyor belt is sleeved on the driven roller, driving roller, and hollow rotating roller. The conveyor belt has a three-layer structure: an inner belt, a middle belt, and an outer belt. The outer belt is made of high-density polyurethane and has a nano-silicon carbide particle coating on its surface. The conveyor belt of this invention adopts a composite layered structure design, significantly improving overall performance and service life, ensuring stable operation of the conveying system, and extending the maintenance cycle of key components.

Description

TECHNICAL FIELD

[0001] The present application relates to the technical field of cargo transportation, in particular to an optical lens processing waste transportation device. BACKGROUND

[0002] In the process of precision machining of optical lenses, the generated waste usually contains a mixture of large particle residues and micron-sized debris, and the transportation and separation efficiency directly affects the cleanliness of the production environment and the equipment maintenance cost.

[0003] The current optical lens processing waste transportation device mostly adopts a flat conveyor belt structure, which has the following technical bottlenecks: first, the waste is prone to sliding due to inertia (inclined conveyor belt) or vibration during transportation, resulting in secondary pollution and reduced recovery rate; second, large and small particle waste cannot be dynamically separated during transportation, and manual screening or additional independent sorting equipment is required, significantly increasing the process complexity; third, debris is easily adhered to the surface of the conveyor belt, and conventional cleaning methods cannot completely remove the residues, and long-term accumulation may cause conveyor belt wear or electrostatic adsorption effect, affecting the stability of the equipment operation. SUMMARY

[0004] To solve the problem of waste residue or sliding due to vibration on the optical lens processing waste transportation device in the background art, the purpose of the present application is to provide an optical lens processing waste transportation device.

[0005] To achieve the above purpose, the present application provides the following technical scheme: an optical lens processing waste transportation device, comprising:

[0006] A bracket, a driven roller and a driving roller are cooperatively installed on the bracket, and side plates are fixedly installed on both sides of the bracket;

[0007] A dust removal member includes two rotating seats, which are respectively embeddedly installed on the two side plates, and a hollow rotating roller is rotatably installed in the rotating seat;

[0008] A conveyor belt includes a three-layer structure of an inner belt, a middle belt and a surface belt, the middle belt is located between the inner belt and the surface belt, the conveyor belt is sleeved on the driven roller, the driving roller and the hollow rotating roller, grooves are formed on the surface belt, a plurality of material holding grooves are formed on the grooves, a plurality of collection fins are arranged in the material holding grooves, the surface belt is made of high-density polyurethane with 3-5% conductive carbon black, and a nano silicon carbide particle coating is arranged on the surface, and the diameter of the nano silicon carbide particle is 50-100 nm.

[0009] Further, the bracket is also fixedly installed with a driving motor, the driving motor is drivenly connected with the driving roller through a corresponding belt and pulley, a plurality of through holes are formed in the hollow rotating roller, a first baffle and a second baffle are cooperatively installed between the two side plates, the dust removal member is located between the first baffle and the second baffle, and an air pump is cooperatively installed on the bracket.

[0010] Further, the inner belt is made of aramid woven cloth and epoxy resin, and a tooth pattern is formed on one side of the inner belt; and the middle belt is made of closed-cell foamed silica gel and internally embedded with a honeycomb-shaped carbon fiber woven fabric skeleton.

[0011] Further, a tensioning device is fixedly installed between the two side plates, the tensioning device comprises a first fixing frame and a supporting frame, the first fixing frame is fixedly installed between the two side plates, a plurality of slide rods are fixedly installed on one side of the supporting frame, the slide rods penetrate through the first fixing frame and are in sliding cooperation with the first fixing frame, a plurality of threaded sleeves are inlaidly installed on the first fixing frame, tensioning screws are in threaded cooperation with the threaded sleeves, one end of the tensioning screws is in sliding cooperation with the supporting frame, a tensioning roller is cooperatively installed on the supporting frame, and the tensioning roller is cooperatively arranged with the surface belt of the conveying belt.

[0012] Further, a first cleaning member is cooperatively installed between the two side plates.

[0013] The first cleaning member comprises a first hollow plate and a second fixing frame, the first hollow plate is fixedly connected with the second fixing frame, the two ends of the second fixing frame are fixed on the two side plates respectively, a first spray head is forwardly installed on the first hollow plate, the first spray head is downwardly arranged, a first shunt pipe is cooperatively installed on the first hollow plate, the first shunt pipe is in communication with the first hollow plate, the first hollow plate is located inside the hollow rotating roller, and one gas outlet of the air pump is in communication with the first hollow plate through a first connecting pipe.

[0014] Further, a third baffle is cooperatively installed on the second baffle, and a second cleaning member is cooperatively installed on the inner side of the third baffle.

[0015] The second cleaning member comprises a second shunt pipe, the second shunt pipe is fixedly installed on the two side plates, a second hollow plate is cooperatively installed on one side of the second shunt pipe, the second shunt pipe is in communication with the second hollow plate, a plurality of second spray heads are inlaidly installed on the second hollow plate, the second spray heads are arranged towards the conveying belt, and the other gas outlet of the air pump is in communication with the second hollow plate through a second connecting pipe.

[0016] Further, a cleaning brush is cooperatively installed on the inner side of the third baffle, and the cleaning brush is cooperatively arranged with the conveying belt.

[0017] Further, a dust removal device is installed between the two side plates in cooperation;

[0018] The dust removal device comprises a dust removal box and a fan, the dust removal box is fixedly installed between the two side plates, a dust removal auger is installed on the lower side of the dust removal box in cooperation, one end of the dust removal auger is installed in cooperation with a dust removal groove, the dust removal groove extends out of the side plate, and the fan is embeddedly installed on the dust removal box and the side plate.

[0019] The third baffle is provided with a dust suction bin, and the dust suction bin is connected with the dust removal box through a third connecting pipe.

[0020] Further, a plurality of first check plates are installed on the inner side of the first baffle in cooperation.

[0021] Further, a discharge chute is installed between the first baffle and the second baffle in cooperation, and the discharge chute is obliquely arranged and extends to the outside of the side plate.

[0022] Compared with the prior art, the beneficial effects of the present application are as follows:

[0023] The conveying belt of the present application adopts a composite layered structure design, which significantly improves the overall performance and service life. Among them, the inner layer is made of high-strength fiber reinforced composite material, which has excellent tensile and corrosion resistance; the middle layer innovatively combines an elastic foaming matrix and a three-dimensional skeleton support system, which not only gives the conveying belt good flexibility and buffering characteristics, but also disperses external impact load through the three-dimensional network structure, effectively inhibiting tear propagation; the surface layer selects a special high polymer composite material, which realizes rapid dissipation of surface charge by introducing a conductive medium, prevents dust electrostatic adsorption, and at the same time combines an ultra-fine hard ceramic particle reinforcement technology to form a dense protective layer on the surface. Its unique micro-morphology not only greatly improves the anti-wear ability, but also effectively relieves surface damage caused by sharp waste impact through the high toughness and elastic deformation characteristics of the particles. The three-layer structure forms a complementary effect in the dynamic transportation process through the gradient matching of material properties and functional synergy, which not only guarantees the stable operation of the conveying system, but also prolongs the maintenance cycle of the key components.

[0024] The application can effectively store optical lens processing waste materials in the storage groove opened on the surface of the belt, prevent the waste materials from sliding along the conveying belt through the structural design, and significantly improve the system operation stability. When the waste materials fall into the storage groove, small particle waste materials are retained in the space between the collection fins, and large particle waste materials are thrown away due to inertia when the conveying belt runs to the driven roller end. At this time, small particle waste materials are hindered from separating by the surface friction of the collection fins and continue to move to the first cleaning station with the conveying belt. When the high-pressure gas is directed to impact the conveying belt by the nozzle, the storage groove is deformed and vibrates due to the local structural weakness, forcing the small particle waste materials remaining in the groove to separate and discharge along the discharge groove. This process not only realizes the automatic separation of large particle and small particle waste materials, but also keeps the surface of the belt clean through the dynamic cleaning mechanism, forming the technical effect of integrated classification and self-cleaning. BRIEF DESCRIPTION OF DRAWINGS

[0025] Figure 1 A basic structure diagram of an optical lens processing waste material conveying device Figure 1 .

[0026] Figure 2 A basic structure diagram of an optical lens processing waste material conveying device Figure 2 .

[0027] Figure 3 An internal structure diagram of an optical lens processing waste material conveying device.

[0028] Figure 4 A partial view of a front view of an optical lens processing waste material conveying device Figure 3 .

[0029] Figure 5 A first connecting pipe and a second connecting pipe of an optical lens processing waste material conveying device Figure 1 .

[0030] Figure 6 A first connecting pipe and a second connecting pipe of an optical lens processing waste material conveying device Figure 2 .

[0031] Figure 7 A top view of an optical lens processing waste material conveying device Figure 1 .

[0032] Figure 8 A B-B sectional view of an optical lens processing waste material conveying device Figure 7 .

[0033] Figure 9This is a schematic diagram showing the installation position of the tensioning device in an optical lens processing waste transport device according to the present invention. Figure 1 .

[0034] Figure 10 This is a schematic diagram showing the installation position of the tensioning device in an optical lens processing waste transport device according to the present invention. Figure 2 .

[0035] Figure 11 This is a schematic diagram showing the installation positions of the first and second cleaning components of an optical lens processing waste transportation device according to the present invention.

[0036] Figure 12 This is a schematic diagram of the basic structure of the tensioning device of an optical lens processing waste transportation device according to the present invention.

[0037] Figure 13 This is a schematic diagram showing the flow of waste material in an optical lens processing waste transportation device according to the present invention.

[0038] Figure 14 This is a schematic diagram of the structure of a waste conveying device for optical lens processing according to the present invention, in which the inner belt is wound around a hollow rotating roller.

[0039] Figure 15 This is a cross-sectional view of the conveyor belt of an optical lens processing waste transportation device according to the present invention.

[0040] Figure 16 This is a schematic diagram of the conveyor belt structure of an optical lens processing waste transportation device according to the present invention.

[0041] Figure 17 This invention relates to a waste transport device for optical lens processing. Figure 16 A sectional view.

[0042] Figure 18 This is a schematic diagram of the structure of a waste transport device for optical lens processing according to the present invention, in which the conveyor belt is wound around a hollow rotating roller.

[0043] Figure 19 This invention relates to a waste transport device for optical lens processing. Figure 16 Enlarged view of part B.

[0044] Figure 20 This invention relates to a waste transport device for optical lens processing. Figure 18 The structural diagram of part C.

[0045] Figure 21 This invention relates to a waste transport device for optical lens processing. Figure 18 The structural diagram of the strap in section C being impacted by the gas ejected from the first nozzle.

[0046] In the diagram: 101, bracket; 102, driven roller; 103, drive roller; 104, drive motor; 201, first baffle; 202, second baffle; 203, side plate; 204, feed chute; 205, first check valve; 206, third baffle; 207, cleaning brush; 300, dust collector; 301, rotating seat; 302, hollow rotating roller; 303, through hole; 400, first cleaning component; 401, first hollow plate; 402, second fixed frame; 403, first nozzle; 404, first diverter pipe; 500, tensioning device; 501, first fixed frame; 502, support frame; 503 504. Slide bar; 505. Tensioning roller; 506. Threaded sleeve; 507. Tensioning screw; 608. Air pump; 609. First connecting pipe; 600. Second connecting pipe; 700. Dust removal device; 701. Dust removal box; 702. Dust discharge auger; 703. Fan; 704. Dust discharge trough; 705. Third connecting pipe; 706. Dust suction chamber; 800. Second cleaning component; 801. Second diversion pipe; 802. Second hollow plate; 804. Second nozzle; 900. Conveyor belt; 901. Inner belt; 902. Middle belt; 903. Outer belt; 904. Groove; 905. Material trough; 906. Collection fin plate. Detailed Implementation

[0047] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0048] like Figure 1 - Figure 15 As shown, this embodiment provides an optical lens processing waste transportation device, including a bracket 101. A driven roller 102 and a drive roller 103 are installed on the bracket 101. A drive motor 104 is also fixedly installed on the bracket 101. The drive motor 104 drives the drive roller 103 through a corresponding belt and pulley. In this embodiment, the drive motor 104 is a servo motor, which can precisely control the rotation speed of the drive roller 103.

[0049] Reference Figure 1 - Figure 6The two sides of the support 101 are fixedly provided with side plates 203, the first baffle 201 and the second baffle 202 are cooperatively arranged between the two side plates 203, the blanking groove 204 is cooperatively arranged between the first baffle 201 and the second baffle 202, the blanking groove 204 is arranged in an inclined manner and extends to the outside of the side plate 203, and the dust removal piece 300 is cooperatively arranged between the two side plates 203.

[0050] With reference to Figure 3 and Figure 13 The driven roller 102, the driving roller 103 and the hollow rotating roller 302 are sleeved with the conveying belt 900, the conveying belt 900 comprises three layers of the inner belt 901, the middle belt 902 and the surface belt 903, the middle belt 902 is located between the inner belt 901 and the surface belt 903, and the inner belt 901 and the surface belt 903 are adhered through the middle belt 902.

[0051] The inner belt 901 is made of aramid woven fabric, and one side of the inner belt 901 is provided with a tooth pattern, the driven roller 102 and the driving roller 103 are provided with tooth patterns corresponding to the inner belt 901, and the driven roller 102 and the driving roller 103 are engaged with the inner belt 901 to prevent slipping.

[0052] The middle belt 902 is made of closed-cell foamed silica gel, and a honeycomb-shaped carbon fiber woven fabric skeleton is embedded in the middle belt 902, the honeycomb-shaped carbon fiber woven fabric skeleton disperses external impact load through a three-dimensional network structure, and tearing expansion can be effectively inhibited.

[0053] The surface belt 903 is made of high-density polyurethane into which 3% to 5% conductive carbon black is mixed, dust electrostatic adsorption on the surface of the surface belt 903 can be effectively prevented, the surface is provided with a nano silicon carbide particle coating, the diameter of the nano silicon carbide particle is 100 nm, the wear resistance of the surface belt 903 is greatly increased, the service life of the conveying belt is improved during the process of transporting sharp optical lens processing waste, and the toughness of the nano silicon carbide particle is also very good, and the impact of the optical lens processing waste can be effectively buffered.

[0054] With reference to Figure 8 , Figure 9 and Figure 12As shown, the two side plates 203 are fixedly installed with a tensioning device 500, the tensioning device 500 comprises a first fixing frame 501 and a support frame 502, the first fixing frame 501 is fixedly installed between the two side plates 203, the support frame 502 is fixedly installed with a plurality of slide rods 503 on one side, the slide rods 503 mainly play a guiding role, the slide rods 503 penetrate through the first fixing frame 501 and are in sliding fit with the first fixing frame 501, a plurality of threaded sleeves 505 are inlaidly installed on the first fixing frame 501, tensioning screws 506 are in threaded fit in the threaded sleeves 505, one end of the tensioning screws 506 is in rotary fit with the support frame 502, a tensioning roller 504 is in fit installation on the support frame 502, the tensioning roller 504 is in fit arrangement with the watchband 903 of the conveying belt 900, the tensioning roller 504 is provided with a polyurethane rubber coating layer, longitudinal tooth grooves are formed in the rubber coating layer, the contact stress between the watchband 903 and the tensioning roller 504 can be effectively reduced, and the watchband 903 is prevented from abrading the tensioning roller 504.

[0055] In the embodiment, after the installation of the conveying belt 900 is completed, the worker can rotate the tensioning screw 506 through a wrench, so that the tensioning roller 504 applies appropriate pressure to the conveying belt 900, after the adjustment of the tensioning screw 506 is completed, the locking nut on the tensioning screw 506 is tightened, and at this time, the tensioning operation of the conveying belt 900 is completed.

[0056] Referring to Figure 2 , Figure 3 and Figure 11 As shown, the two side plates 203 are fixedly installed with a first cleaning piece 400;

[0057] The first cleaning piece 400 comprises a first hollow plate 401 and a second fixing frame 402, the first hollow plate 401 is fixedly connected with the second fixing frame 402, the two ends of the second fixing frame 402 are fixed on the two side plates 203 respectively, the first hollow plate 401 is forwardly installed with a first spray head 403, the first spray head 403 is downwardly arranged, the first hollow plate 401 is in fit installation with a first shunt pipe 404, the first shunt pipe 404 is in communication with the first hollow plate 401, the first hollow plate 401 is located inside the hollow rotating roller 302, a bracket 101 is in fit installation with an air pump 601, one of the air outlets of the air pump 601 is in communication with the first hollow plate 401 through a first connecting pipe 602.

[0058] In this embodiment, after the conveying belt 900 completes the transportation process of the optical lens processing waste (the driving roller 103 to the driven roller 102), a certain amount of small particle optical lens processing waste will still be left in the groove 904. When the small particle optical lens processing waste passes under the first hollow plate 401, the first nozzle 403 sprays high-pressure gas, so that the conveying belt 900 deforms and vibrates, and the small particle optical lens processing waste left in the groove 904 is shaken off. The small particle optical lens processing waste then falls into the discharge chute 204 and is discharged.

[0059] Referring to Figure 5 , Figure 6 , Figure 9 , Figure 10 and Figure 11 , the second baffle 202 is cooperatively installed with a third baffle 206, and the inner side of the third baffle 206 is cooperatively installed with a second cleaning member 800. The second cleaning member 800 includes a second shunt pipe 801, which is fixedly installed on the two side plates 203. The second shunt pipe 801 is cooperatively installed with a second hollow plate 802 on one side. The second shunt pipe 801 and the second hollow plate 802 are in communication. A plurality of second nozzles 804 are inlaidly installed on the second hollow plate 802. The second nozzles 804 are arranged towards the conveying belt 900. Another gas outlet of the air pump 601 is in communication with the second hollow plate 802 through a second connecting pipe 603. In this embodiment, the air pump 601 is provided with a gas storage pressure cylinder. Both gas outlets are connected with the corresponding gas cylinder and control the flow of gas through the corresponding electromagnetic valve. The two electromagnetic valves are alternately opened and closed at an interval of 0.5 seconds.

[0060] In combination with Figure 1 and Figure 8 , a dust removal device 700 is cooperatively installed between the two side plates 203. The dust removal device 700 includes a dust removal box 701 and a fan 703. The dust removal box 701 is fixedly installed between the two side plates 203. A dust removal auger 702 is cooperatively installed on the lower side of the dust removal box 701. One end of the dust removal auger 702 is cooperatively installed with a dust removal chute 704, which extends out of the side plate 203. The fan 703 is inlaidly installed on the dust removal box 701 and the side plate 203. The third baffle 206 is provided with a dust suction chamber 706. The dust suction chamber 706 is connected with the dust removal box 701 through a third connecting pipe 705.

[0061] In the embodiment, the surface of the watchband 903 cleaned by the first cleaning member 400 still has a small amount of optical lens processing waste with small particles attached thereto. At this time, the surface of the watchband 903 is flushed by the high-pressure gas sprayed by the second spray head 804 to blow off the optical lens processing waste with small particles. At this time, the optical lens processing waste with small particles floats in the space inside the third baffle 206. At this time, the fan 703 operates to perform air extraction on the space inside the third baffle 206 through the third connecting pipe 705 (see the dashed white arrow in the figure for the flow direction of the gas with the optical lens processing waste with small particles). The gas with the optical lens processing waste with small particles enters the dust removal box 701. The optical lens processing waste with small particles is blocked by the dust removal bag of the dust removal box 701 and falls into the dust removal auger 702. The optical lens processing waste with small particles is discharged from the dust removal groove 704 under the operation of the dust removal auger 702. Figure 13

[0062] The first baffle 201 is fitted with a plurality of first check plates 205 inside. The first check plates 205 can block most of the gas sprayed by the first spray head 403 from escaping upwards of the first check plates 205, further increasing stability. The third baffle 206 is fitted with a cleaning brush 207 inside. The cleaning brush 207 is arranged in cooperation with the watchband 903. The cleaning brush 207 can sweep the residual optical lens processing waste on the surface of the watchband 903 down, making the surface of the watchband 903 cleaner.

[0063] In another embodiment of the present application, referring to Figure 16 Figure 21 On the basis of the embodiment, the watchband 903 is provided with a groove 904. The groove 904 is provided with a plurality of material containing grooves 905. In the embodiment, the bottom of the material containing groove 905 is designed as a thin-walled structure (thickness ≤0.5mm, see d in Figure 20 and Figure 21 ), and a para-aramid fiber net with a thickness of 0.05mm is embedded at the thin-walled part to increase the strength of the thin-walled part of the material containing groove 905, facilitate the deformation of part of the material containing groove 905, and prevent the watchband 903 made of polyurethane material from being unable to deform locally. The material containing groove 905 is provided with a plurality of collection fins 906. The collection fins 906 are different from the structure of the watchband 903. They are made of soft TPU (thermoplastic polyurethane). The coating on the surface of the collection fins 906 is different from the antistatic coating on the surface of the watchband 903. The coating on the surface of the collection fins 906 is made of a quaternary ammonium salt type antistatic agent epoxy resin material (the addition amount of the quaternary ammonium salt type antistatic agent ≥15wt%). This coating is easy to accumulate static electricity, thereby improving the electrostatic adsorption effect of the collection fins 906 and making the small-particle optical lens processing waste better adsorbed on the surface of the collection fins 906.

[0064] ​​The opened material holding groove 905 can effectively store the optical lens processing waste, prevent the optical lens processing waste from sliding along the conveying belt 900, and increase the stability of the embodiment. After the optical lens processing waste falls into the material holding groove 905, the small-particle optical lens processing waste will fall into and be stuck between the collection fins 906. When the optical lens processing waste reaches one end of the driven roller 102 and is thrown down (refer to Figure 13 , the moving direction of the optical lens processing waste is referred to as a black dashed arrow, and e is the falling direction of the large-particle optical lens processing waste), the small-particle optical lens processing waste will be stuck between the collection fins 906 and cannot be thrown out. Then, the residual small-particle optical lens processing waste reaches below the first nozzle 403 (refer to Figure 13 , the moving direction of the residual small-particle optical lens processing waste is referred to as a black solid arrow f; refer to Figure 20 and Figure 21 , where h is the small-particle optical lens processing waste in the collection fins 906), the first nozzle 403 sprays high-pressure gas, the high-pressure gas deforms the C part of the conveying belt 900 (refer to Figure 18 , Figure 20 and Figure 21 ), and because the position where the material holding groove 905 is opened is relatively weak (refer to Figure 20 and Figure 21 , d), the high-pressure gas will force the material holding groove 905 on the watchband 903 to turn outward and vibrate (refer to Figure 21 , the dashed part in the figure is the original position of the watchband 903, and the white arrow is the direction of the high-pressure gas sprayed by the first nozzle 403), in this process, the residual small-particle optical lens processing waste (refer to h in Figure 20 and 21 ) in the material holding groove 905 will be knocked off and fall into the discharge chute 204 and be discharged through it, thereby realizing the separation of the large-particle and small-particle optical lens processing waste, and further improving the cleanliness of the surface of the watchband 903.

[0065] In this document, the terms such as first and second are used only to distinguish one entity or operation from another entity or operation, and do not necessarily require or imply any such actual relationship or order between the entities or operations. Moreover, the terms "include", "contain" or any other variants thereof are intended to cover non-exclusive inclusion, so that a process, method, article or device including a series of elements not only includes those elements, but also includes other elements not explicitly listed or inherent to such a process, method, article or device.

[0066] While embodiments of the application have been shown and described, it is to be understood that the embodiments described are merely exemplary of the principles and application of the present application. Numerous modifications and adaptions can be effected without departing from the spirit and scope of the present application, which is not limited to the exact construction and arrangement described. It is intended, therefore, to cover all modifications and adaptions that fall within the scope of the claims and their equivalents.

Claims

1. An optical lens processing waste transport device, characterized in that, The utility model relates to a kind of dust removal device and cleaning device for conveying belt, including: Support (101), driven roller (102) and driving roller (103) are matched and installed on the support (101), side plate (203) is fixedly installed on both sides of the support (101); Dust removal part (300), including two rotating seats (301), two The rotating seat (301) is respectively embedded and installed on two side plates (203), the hollow rotating roller (302) is rotatably installed in the rotating seat (301); Conveying belt (900), including inner belt (901), middle belt (902) and surface belt (903) three-layer structure, the middle belt (902) is located between inner belt (901) and surface belt (903), the conveying belt (900) is sleeved on driven roller (102), driving roller (103) and hollow rotating roller (302), recess (904) is set up on the surface belt (903), a plurality of material holding grooves (905) are set up on the recess (904), a plurality of collection fins (906) are arranged in the material holding groove (905), the surface belt (903) is made of high-density polyurethane into which 3%~5% conductive carbon black is mixed, and a nano silicon carbide particle coating is arranged on the surface, and the diameter of the nano silicon carbide particle is 50-100nm; The driving motor (104) is also fixedly installed on the support (101), the driving motor (104) is drivenly connected with driving roller (103) by corresponding belt and belt pulley, a plurality of through holes (303) are formed in the hollow rotating roller (302), first baffle (201) and second baffle (202) are matched and installed between two The side plate (203), the dust removal part (300) is located between first baffle (201) and second baffle (202), air pump (601) is matched and installed on the support (101); First cleaning part (400) is matched and installed between two The side plate (203); The first cleaning part (400) includes first hollow plate (401) and second fixed frame (402), and the first hollow plate (401) is fixedly connected with the second fixed frame (402), both ends of the second fixed frame (402) are fixed on two side plates (203), respectively, first nozzle (403) is installed on the first hollow plate (401), the first nozzle (403) is arranged downward, first shunt pipe (404) is matched and installed on the first hollow plate (401), the first shunt pipe (404) is communicated with the first hollow plate (401), the first hollow plate (401) is located in the hollow rotating roller (302), one of the air outlet of the air pump (601) is communicated with the first hollow plate (401) by first connecting pipe (602); Third baffle (206) is matched and installed on the second baffle (202), second cleaning part (800) is matched and installed on the inner side of the third baffle (206). The second cleaning piece (800) comprises a second shunt pipe (801) fixedly installed on the two side plates (203), one side of the second shunt pipe (801) is fittedly installed with a second hollow plate (802), the second shunt pipe (801) and the second hollow plate (802) are communicated, a plurality of second spray heads (804) are inlaidly installed on the second hollow plate (802), the second spray heads (804) are arranged towards the conveying belt (900), and the other gas outlet of the air pump (601) is communicated with the second hollow plate (802) through a second connecting pipe (603).

2. An optical lens processing waste transport device according to claim 1, characterized in that, The inner belt (901) is made of aramid woven fabric and epoxy resin, and a tooth pattern is further formed on one side of the inner belt (901); and the middle belt (902) is made of closed-cell foamed silica gel, and a honeycomb-shaped carbon fiber woven fabric skeleton is embedded in the middle belt (902).

3. An optical lens processing waste transport device according to claim 1, characterized in that, The two side plates (203) are fixedly installed with a tensioning device (500), the tensioning device (500) comprises a first fixing frame (501) and a supporting frame (502), the first fixing frame (501) is fixedly installed between the two side plates (203), a plurality of slide rods (503) are fixedly installed on one side of the supporting frame (502), the slide rods (503) penetrate through and are in sliding fit with the first fixing frame (501), a plurality of threaded sleeves (505) are inlaidly installed on the first fixing frame (501), tensioning screws (506) are in threaded fit in the threaded sleeves (505), one end of the tensioning screws (506) is in sliding fit with the supporting frame (502), and a tensioning roller (504) is fittedly installed on the supporting frame (502) and is arranged in fit with the watchband (903) of the conveying belt (900).

4. The optical lens processing waste transport device of claim 1, wherein, The third baffle (206) is fittedly installed with a cleaning brush (207) on the inner side, and the cleaning brush (207) is arranged in fit with the conveying belt (900).

5. The optical lens processing waste transport device of claim 1, wherein, The two side plates (203) are fittedly installed with a dust removal device (700); The dust removal device (700) comprises a dust removal box (701) and a fan (703), the dust removal box (701) is fixedly installed between the two side plates (203), a dust removal auger (702) is fittedly installed on the lower side of the dust removal box (701), one end of the dust removal auger (702) is fittedly installed with a dust removal groove (704), the dust removal groove (704) extends out of the side plate (203), and the fan (703) is inlaidly installed on the dust removal box (701) and the side plate (203); The third baffle (206) is provided with a dust collection bin (706), and the dust collection bin (706) is connected with the dust removal box (701) through a third connecting pipe (705).

6. The optical lens processing waste transport device of claim 1, wherein, A plurality of first check plates (205) are fittedly installed on the inner side of the first baffle (201).

7. The optical lens processing waste transport device of claim 1, wherein, A feeding groove (204) is fittedly installed between the first baffle (201) and the second baffle (202), and the feeding groove (204) is arranged in an inclined manner and extends to the outside of the side plate (203).

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