Optical lens machining waste conveying device

Abstract

The invention discloses an optical lens machining waste transporting device, and relates to the technical field of cargo conveying, the optical lens machining waste transporting device comprises a support, a driven roller and a driving roller are cooperatively installed on the support, side plates are fixedly installed on the two sides of the support, and a first baffle and a second baffle are cooperatively installed between the two side plates; a dust removal part is further installed between the two side plates in a matched mode and comprises two rotating bases, the two rotating bases are installed on the two side plates in an embedded mode respectively, hollow rotating rollers are rotatably installed in the rotating bases, and the driven roller, the driving roller and the hollow rotating rollers are sleeved with a conveying belt. The conveyor belt comprises a three-layer structure of an inner belt, a middle belt and a surface belt, the surface belt is made by doping high-density polyurethane, and a nanometer silicon carbide particle coating is arranged on the surface of the surface belt. The composite layered structural design is adopted for the conveying belt, the overall performance is remarkably improved, the service life is remarkably prolonged, stable operation of a conveying system is guaranteed, and the maintenance period of key components is prolonged.

Description

Technical Field

[0001] The invention relates to the technical field of cargo transportation, and in particular to a device for transporting waste from optical lens processing. Background Art

[0002] During the precision processing of optical lenses, the waste generated usually contains a mixture of large particle fragments and micron-sized debris. The efficiency of its transportation and separation directly affects the cleanliness of the production environment and the cost of equipment maintenance.

[0003] At present, most of the waste transportation devices for optical lens processing adopt a flat conveyor belt structure, which has the following technical bottlenecks: First, the waste is easy to slide due to inertia (tilted conveyor belt) or vibration during transportation, resulting in secondary pollution and reduced recovery rate; second, it is difficult to achieve dynamic separation of large and small waste particles during transportation, and it is necessary to rely on manual screening or add independent sorting equipment, which significantly increases the complexity of the process; third, debris is easy to adhere to the surface of the conveyor belt, and conventional cleaning methods are difficult to completely remove the residue. Long-term accumulation may cause conveyor belt wear or electrostatic adsorption effect, affecting the stability of equipment operation. Summary of the invention

[0004] In order to solve the problem in the above-mentioned background technology that waste on the optical lens processing waste transportation device is prone to remain or slide due to vibration, the purpose of the present invention is to provide an optical lens processing waste transportation device.

[0005] To achieve the above-mentioned purpose, the present invention provides the following technical solution: an optical lens processing waste transport device, comprising: A bracket, on which a driven roller and a driving roller are mounted in cooperation, and side plates are fixedly mounted on both sides of the bracket; The dust removal part comprises two rotating seats, which are respectively mounted on two side plates, and a hollow rotating roller is rotatably mounted in the rotating seats; The conveyor belt comprises a three-layer structure of an inner belt, a middle belt and a surface belt, wherein the middle belt is located between the inner belt and the surface belt, the conveyor belt is sleeved on a driven roller, a driving roller and a hollow rotating roller, the surface belt is provided with a groove, the groove is provided with a plurality of material receiving troughs, the material receiving troughs are provided with a plurality of collecting fins, the surface belt is made of high-density polyurethane doped with 3% to 5% conductive carbon black, the surface is provided with a coating of nano silicon carbide particles, and the diameter of the nano silicon carbide particles is 50-100nm.

[0006] Furthermore, a driving motor is fixedly mounted on the bracket, and the driving motor is connected to the driving roller through corresponding belts and pulleys. A plurality of through holes are provided on the hollow rotating roller. A first baffle and a second baffle are cooperatively mounted between the two side panels. The dust removal component is located between the first baffle and the second baffle. An air pump is cooperatively mounted on the bracket.

[0007] Furthermore, the inner belt is made of aramid woven cloth and epoxy resin, and one side of the inner belt is also provided with tooth patterns. The middle belt is made of closed-cell foamed silicone, and a honeycomb carbon fiber woven fabric skeleton is embedded in the inner part.

[0008] Furthermore, a tensioning device is fixedly installed between the two side plates, and the tensioning device includes a first fixing frame and a supporting frame. The first fixing frame is fixedly installed between the two side plates, and a plurality of sliding rods are fixedly installed on one side of the supporting frame. The sliding rods pass through the first fixing frame and slide with the first fixing frame. A plurality of threaded sleeves are inlaid and installed on the first fixing frame, and a tensioning screw is installed on the inner thread of the threaded sleeve. One end of the tensioning screw is slidably cooperated with the supporting frame, and a tensioning roller is installed on the supporting frame, and the tensioning roller is cooperated with the surface band of the conveyor belt.

[0009] Furthermore, a first cleaning member is installed between the two side plates; The first cleaning component includes a first hollow plate and a second fixing frame, the first hollow plate and the second fixing frame are fixedly connected, the two ends of the second fixing frame are respectively fixed on two side plates, a first nozzle is installed forward on the first hollow plate, the first nozzle is set downward, a first diversion pipe is installed on the first hollow plate, the first diversion pipe is connected with the first hollow plate, the first hollow plate is located inside the hollow rotating roller, and one of the air outlets of the air pump is connected with the first hollow plate through a first connecting pipe.

[0010] Furthermore, a third baffle is mounted on the second baffle, and a second cleaning member is mounted on the inner side of the third baffle; The second cleaning component includes a second diverter pipe, which is fixedly mounted on two side plates. A second hollow plate is mounted on one side of the second diverter pipe. The second diverter pipe is connected to the second hollow plate. A plurality of second nozzles are inlaid and mounted on the second hollow plate. The second nozzles are arranged toward the conveyor belt. Another air outlet of the air pump is connected to the second hollow plate through a second connecting pipe.

[0011] Furthermore, a cleaning brush is installed on the inner side of the third baffle, and the cleaning brush is arranged in cooperation with the conveyor belt.

[0012] Furthermore, a dust removal device is installed between the two side panels; The dust removal device includes a dust removal box and a fan, wherein the dust removal box is fixedly installed between two side panels, a dust auger is installed on the lower side of the dust removal box, a dust outlet groove is installed on one end of the dust auger, and the dust outlet groove extends out of the side panel, and the fan is embedded in the dust removal box and the side panel; The third baffle is provided with a dust collection bin, and the dust collection bin is connected to the dust removal box through a third connecting pipe.

[0013] Furthermore, a plurality of first check plates are installed on the inner side of the first baffle.

[0014] Furthermore, a material discharge chute is installed between the first baffle plate and the second baffle plate, and the material discharge chute is arranged obliquely and extends to the outside of the side plate.

[0015] Compared with the prior art, the present invention has the following beneficial effects: The conveyor belt of the present invention 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 materials, which have excellent tensile and corrosion resistance; the middle layer innovatively combines the elastic foaming matrix with the three-dimensional skeleton support system, which not only gives the conveyor belt good flexibility and buffering characteristics, but also disperses the external impact load through the three-dimensional network structure, effectively inhibiting the expansion of tearing; the surface layer uses special polymer composite materials, and the surface charge is quickly dissipated by introducing a conductive medium to prevent dust electrostatic adsorption. At the same time, combined with ultra-fine hard ceramic particle reinforcement technology, a dense protective layer is formed on the surface. Its unique microscopic morphology not only greatly improves the wear resistance, but also can effectively alleviate the surface damage caused by the impact of sharp waste through the high toughness and elastic deformation characteristics of the particles themselves. 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 ensures the stable operation of the conveying system, but also extends the maintenance cycle of key components.

[0016] The material holding trough opened on the surface of the watchband of the present invention can effectively store optical lens processing waste. Its structural design prevents the waste from sliding along the conveyor belt, significantly improving the system operation stability. After the waste falls into the material holding trough, the small waste particles are retained therein due to the space constraints between the collecting fins, while the large waste particles are thrown away due to inertia when the conveyor belt runs to the driven roller end. At this time, the small waste particles are hindered by the friction force on the surface of the collecting fins and cannot be separated, and continue to move to the first cleaning station with the conveyor belt. When the high-pressure gas is directed by the nozzle to impact the conveyor belt, the material holding trough will produce outward deformation and high-frequency vibration due to the weak local structure, forcing the small waste particles remaining in the trough to break away and be discharged along the lower trough. This process not only realizes the automatic separation of large and small waste particles, but also maintains a high degree of cleanliness on the surface of the watchband through a dynamic cleaning mechanism, forming a technical effect of integrated graded treatment and self-cleaning. BRIEF DESCRIPTION OF THE DRAWINGS

[0017] Figure 1 The basic structure of the optical lens processing waste transport device of the present invention is shown in FIG. Figure 1 .

[0018] Figure 2The basic structure of the optical lens processing waste transport device of the present invention is shown in FIG. Figure 2 .

[0019] Figure 3 This is a schematic diagram of the internal structure of an optical lens processing waste transportation device of the present invention.

[0020] Figure 4 The invention relates to an optical lens processing waste transport device Figure 3 Partial view of the main view.

[0021] Figure 5 Schematic diagram of the installation of the first connecting pipe and the second connecting pipe of the optical lens processing waste transportation device of the present invention Figure 1 .

[0022] Figure 6 Schematic diagram of the installation of the first connecting pipe and the second connecting pipe of the optical lens processing waste transportation device of the present invention Figure 2 .

[0023] Figure 7 The invention relates to an optical lens processing waste transport device Figure 1 Top view of the .

[0024] Figure 8 The invention relates to an optical lens processing waste transport device Figure 7 Partial view of the BB cutaway view.

[0025] Fig. 9 A schematic diagram of the installation position of a tensioning device of an optical lens processing waste transport device of the present invention Figure 1 .

[0026] Fig.10 A schematic diagram of the installation position of a tensioning device of an optical lens processing waste transport device of the present invention Figure 2 .

[0027] Fig.11 The present invention is a schematic diagram of the installation positions of a first cleaning member and a second cleaning member of an optical lens processing waste transport device.

[0028] Fig.12 This is a basic structural schematic diagram of a tensioning device of an optical lens processing waste transportation device of the present invention.

[0029] Fig.13 This is a schematic diagram of the flow of waste materials in an optical lens processing waste transportation device of the present invention.

[0030] Fig.14 This is a schematic structural diagram of an optical lens processing waste transport device of the present invention when the inner belt is wound around a hollow rotating roller.

[0031] Fig.15 The present invention is a cross-sectional view of a conveyor belt of an optical lens processing waste transport device.

[0032] Fig.16 This is a schematic structural diagram of a conveyor belt of an optical lens processing waste transportation device of the present invention.

[0033] Fig.17 The invention relates to an optical lens processing waste transport device Fig.16 sectional view of .

[0034] Fig.18 This is a schematic structural diagram of a conveyor belt of an optical lens processing waste transportation device of the present invention when it is wound around a hollow rotating roller.

[0035] Fig.19 The invention relates to an optical lens processing waste transport device Fig.16 Enlarged view of part B.

[0036] Fig. 20 The invention relates to an optical lens processing waste transport device Fig.18 Structural diagram of part C.

[0037] Fig.21 The invention relates to an optical lens processing waste transport device Fig.18 The structure diagram of the C portion of the strap when being impacted by the gas ejected from the first nozzle.

[0038] In the figure: 101, bracket; 102, driven roller; 103, driving roller; 104, driving motor; 201, first baffle; 202, second baffle; 203, side plate; 204, material chute; 205, first check plate; 206, third baffle; 207, cleaning brush; 300, dust removal member; 301, rotating seat; 302, hollow rotating roller; 303, through hole; 400, first cleaning member; 401, first hollow plate; 402, second fixed frame; 403, first nozzle; 404, first shunt pipe; 500, tensioning device; 501, first fixed frame; 502, support frame; 503 , slide bar; 504, tensioning roller; 505, threaded sleeve; 506, tensioning screw; 601, air pump; 602, first connecting pipe; 603, second connecting pipe; 700, dust removal device; 701, dust removal box; 702, dust auger; 703, fan; 704, dust outlet trough; 705, third connecting pipe; 706, dust suction bin; 800, second cleaning part; 801, second diverter pipe; 802, second hollow plate; 804, second nozzle; 900, conveyor belt; 901, inner belt; 902, middle belt; 903, surface belt; 904, groove; 905, material trough; 906, collecting fin plate. DETAILED DESCRIPTION

[0039] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the 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.

[0040] like Figure 1 - Fig.15 As shown, an optical lens processing waste transport device provided in this embodiment includes a bracket 101, on which a driven roller 102 and a driving roller 103 are cooperatively mounted, and a driving motor 104 is also fixedly mounted on the bracket 101. The driving motor 104 is connected to the driving roller 103 through a corresponding belt and pulley drive. The driving motor 104 in this embodiment is a servo motor, which can accurately control the rotation speed of the driving roller 103.

[0041] Reference Figure 1 - Figure 6 , side plates 203 are fixedly installed on both sides of the bracket 101, a first baffle 201 and a second baffle 202 are cooperatively installed between the two side plates 203, a material discharge chute 204 is cooperatively installed between the first baffle 201 and the second baffle 202, the material discharge chute 204 is inclined and extends to the outside of the side plates 203, a dust removal member 300 is also cooperatively installed between the two side plates 203, the dust removal member 300 is located between the first baffle 201 and the second baffle 202, the dust removal member 300 includes two rotating seats 301, the two rotating seats 301 are respectively inlaid and installed on the two side plates 203, a hollow rotating roller 302 is rotatably installed in the rotating seat 301, a plurality of through holes 303 are opened on the hollow rotating roller 302, and the through holes 303 are arranged on the surface to increase the friction of the hollow rotating roller 302.

[0042] Reference Figure 3 and Fig.13 The driven roller 102, the driving roller 103 and the hollow rotating roller 302 are sleeved with a conveyor belt 900. The conveyor belt 900 includes a three-layer structure of an inner belt 901, a middle belt 902 and a surface belt 903. The middle belt 902 is located between the inner belt 901 and the surface belt 903. The inner belt 901 and the surface belt 903 are bonded through the middle belt 902.

[0043] The inner belt 901 is made of aramid woven cloth, and a tooth pattern is provided on one side of the inner belt 901. The driven roller 102 and the driving roller 103 are provided with tooth patterns corresponding to the inner belt 901. The driven roller 102 and the driving roller 103 are engaged with the inner belt 901 to prevent slipping.

[0044] The middle belt 902 is made of closed-cell foamed silicone, and a honeycomb carbon fiber woven fabric skeleton is embedded in the interior. The honeycomb carbon fiber woven fabric skeleton disperses the external impact load through a three-dimensional mesh structure, which can effectively inhibit the tearing propagation.

[0045] Strap 903 is made of high-density polyurethane mixed with 3% to 5% conductive carbon black, which can effectively prevent dust from being electrostatically adsorbed on the surface of strap 903. The surface is coated with nano-silicon carbide particles. The diameter of the nano-silicon carbide particles is 100nm, which greatly increases the wear resistance of strap 903, thereby improving the service life of the conveyor belt during the transportation of sharp optical lens processing waste. The nano-silicon carbide particles are also extremely tough and can effectively cushion the impact of optical lens processing waste.

[0046] Reference Figure 8 , Fig. 9 and Fig.12 As shown, a tensioning device 500 is fixedly installed between the two side plates 203, and the tensioning device 500 includes a first fixed frame 501 and a support frame 502. The first fixed frame 501 is fixedly installed between the two side plates 203. A plurality of sliding rods 503 are fixedly installed on one side of the support frame 502. The sliding rods 503 mainly play a guiding role. The sliding rods 503 penetrate the first fixed frame 501 and slide with it. A plurality of threaded sleeves 505 are inlaid and installed on the first fixed frame 501. A tensioning screw 506 is installed on the inner thread of the threaded sleeve 505. One end of the tensioning screw 506 is rotatably matched with the support frame 502. A tensioning roller 504 is installed on the support frame 502. The tensioning roller 504 is matched with the strap 903 of the conveyor belt 900. The tensioning roller 504 is provided with a polyurethane rubber coating layer, and the rubber coating layer is provided with longitudinal tooth grooves, which can effectively reduce the contact stress between the strap 903 and the tensioning roller 504 and prevent the strap 903 from wearing the tensioning roller 504.

[0047] In this embodiment, after the conveyor belt 900 is installed, the staff can rotate the tensioning screw 506 with a wrench so that the tensioning roller 504 applies appropriate pressure to the conveyor belt 900. After the tensioning screw 506 is adjusted, the locking nut on the tensioning screw 506 is screwed on. At this time, the tensioning operation of the conveyor belt 900 is completed.

[0048] Reference Figure 2 , Figure 3 and Fig.11 As shown, a first cleaning member 400 is installed between the two side plates 203; The first cleaning component 400 includes a first hollow plate 401 and a second fixed frame 402, the first hollow plate 401 and the second fixed frame 402 are fixedly connected, and the two ends of the second fixed frame 402 are respectively fixed on the two side plates 203, a first nozzle 403 is installed forward on the first hollow plate 401, and the first nozzle 403 is set downward, a first diverter pipe 404 is installed on the first hollow plate 401, and the first diverter pipe 404 is connected to the first hollow plate 401, the first hollow plate 401 is located inside the hollow rotating roller 302, and an air pump 601 is installed on the bracket 101, and one of the air outlets of the air pump 601 is connected to the first hollow plate 401 through the first connecting pipe 602.

[0049] In this embodiment, after the conveyor belt 900 completes the transportation process of the optical lens processing waste (from the driving roller 103 to the driven roller 102), there will still be a certain amount of small particles of optical lens processing waste remaining in the groove 904. When these small particles of optical lens processing waste pass under the first hollow plate 401, the first nozzle 403 sprays high-pressure gas, causing the conveyor belt 900 to deform and vibrate to a certain extent, thereby shaking off the small particles of optical lens processing waste remaining in the groove 904, and the small particles of optical lens processing waste then fall into the discharge trough 204 and are discharged.

[0050] Reference Figure 5 , Figure 6 , Fig. 9 , Fig.10 and Fig.11 As shown, a third baffle plate 206 is installed on the second baffle plate 202, and a second cleaning piece 800 is installed on the inner side of the third baffle plate 206. The second cleaning piece 800 includes a second diverter pipe 801, and the second diverter pipe 801 is fixedly installed on the two side plates 203. A second hollow plate 802 is installed on one side of the second diverter pipe 801. The second diverter pipe 801 is connected to the second hollow plate 802. A plurality of second nozzles 804 are inlaid and installed on the second hollow plate 802, and the second nozzles 804 are set toward the conveyor belt 900. Another air outlet of the air pump 601 is connected to the second hollow plate 802 through a second connecting pipe 603. The air pump 601 in this embodiment is provided with a gas cylinder for storing air pressure. The two air outlets are connected to the corresponding gas cylinders and the gas circulation is controlled by corresponding solenoid valves. The two solenoid valves are opened and closed alternately at intervals of 0.5s.

[0051] Combination Figure 1 and Figure 8A dust removal device 700 is installed between the two side panels 203, and 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 panels 203. A dust auger 702 is installed on the lower side of the dust removal box 701. A dust outlet groove 704 is installed at one end of the dust auger 702. The dust outlet groove 704 extends out of the side panel 203. The fan 703 is embedded in the dust removal box 701 and the side panel 203. A dust suction bin 706 is provided on the third baffle 206. The dust suction bin 706 is connected to the dust removal box 701 through a third connecting pipe 705.

[0052] In this embodiment, after the first cleaning member 400 cleans, a small amount of very small particles of optical lens processing waste are still attached to the surface of the strap 903. At this time, the second nozzle 804 sprays high-pressure gas to flush the surface of the strap 903, blowing off the very small particles of optical lens processing waste. At this time, the very small particles of optical lens processing waste float in the inner space of the third baffle 206. At this time, the fan 703 is running, and the inner space of the third baffle 206 is evacuated through the third connecting pipe 705 (refer to Fig.13 In the figure, the flow direction of the gas containing extremely small particles of optical lens processing waste is referred to the dotted white arrow in the figure. The gas containing extremely small particles of optical lens processing waste enters the dust removal box 701, and the extremely small particles of optical lens processing waste are blocked by the dust removal bag of the dust removal box 701 and fall into the dust exhaust auger 702, and are discharged from the dust exhaust trough 704 under the operation of the dust exhaust auger 702.

[0053] A plurality of first check plates 205 are installed on the inner side of the first baffle plate 201. The first check plates 205 can block most of the gas ejected from the first nozzle 403 from escaping above the first check plates 205, thereby further increasing stability. A cleaning brush 207 is installed on the inner side of the third baffle plate 206. The cleaning brush 207 is arranged in conjunction with the strap 903. The cleaning brush 207 can sweep away the residual optical lens processing waste on the surface of the strap 903, thereby making the surface of the strap 903 cleaner.

[0054] In another embodiment of the present application, referring to Fig.16 - Fig.21 Based on the embodiment, a groove 904 is provided on the strap 903, and a plurality of material receiving grooves 905 are provided on the groove 904. In this embodiment, the bottom of the material receiving groove 905 is designed to be a thin-walled structure (thickness ≤ 0.5 mm, refer to Fig. 20 and Fig.21d), and an aramid fiber mesh with a thickness of 0.05mm is embedded in the thin wall to increase the strength of the thin wall of the material trough 905, facilitate partial deformation of the material trough 905, and prevent the polyurethane strap 903 from being locally deformed. A number of collecting fins 906 are provided in the material trough 905. The collecting fins 906 are different from the structure of the strap 903. They are made of soft TPU (thermoplastic polyurethane). The coating on the surface of the collecting fins 906 is different from the antistatic coating on the surface of the strap 903. The coating on the surface of the collecting fins 906 is an epoxy resin material with a quaternary ammonium antistatic agent added (the amount of quaternary ammonium antistatic agent added is ≥15wt%). This coating is easy to accumulate static charge, thereby enhancing the electrostatic adsorption effect of the collecting fins 906, so that small particles of optical lens processing waste are better adsorbed on its surface.

[0055] The material receiving trough 905 can effectively store the optical lens processing waste, prevent the optical lens processing waste from sliding along the conveyor belt 900, and increase the stability of the present embodiment; and after the optical lens processing waste falls into the material receiving trough 905, the small particles of the optical lens processing waste will fall into and get stuck between the collecting fins 906, and when the optical lens processing waste reaches one end of the driven roller 102 and is thrown off (refer to Fig.13 , the moving direction of the optical lens processing waste is shown in the black dotted arrow, and e is the falling direction of the large particles of optical lens processing waste). The small particles of optical lens processing waste will be stuck between the collecting fins 906 and cannot be thrown out. Then the remaining small particles of optical lens processing waste will reach the bottom of the first nozzle 403 (refer to Fig.13 The moving direction of the residual small particles of optical lens processing waste is shown in the black solid line arrow f; Fig. 20 and Fig.21 , where h is the small particles of optical lens processing waste collected in the fin plate 906), the first nozzle 403 sprays high-pressure gas, and the high-pressure gas presses the C part of the conveyor belt 900 (refer to Fig.18 , Fig. 20 and Fig.21 ) is deformed, because the position where the material receiving trough 905 is opened is relatively weak (refer to Fig. 20 and Fig.21 d), the high pressure gas will force the material tank 905 on the strap 903 to turn outward and generate vibration (refer to Fig.21 The dotted line in the figure is the original position of the strap 903, and the white arrow is the direction in which the first nozzle 403 sprays the high-pressure gas). During this process, the small particles of optical lens processing waste remaining in the material tank 905 (refer to Fig. 20 and 21 h) inside will be knocked off, fall into the discharge chute 204 and be discharged through it, thereby achieving the separation of large particles and small particles of the optical lens processing waste, and further improving the cleanliness of the surface of the strap 903.

[0056] In this document, relational terms such as first and second, etc., 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 these entities or operations. Moreover, the terms "comprises," "comprising," or any other variations thereof are intended to cover non-exclusive inclusion, such that a process, method, article, or apparatus that includes a series of elements includes not only those elements, but also other elements not explicitly listed, or also includes elements inherent to such process, method, article, or apparatus.

[0057] Although embodiments of the present invention have been shown and described, it will be appreciated by those skilled in the art that various changes, modifications, substitutions and variations may be made to the embodiments without departing from the principles and spirit of the present invention, and that the scope of the present invention is defined by the appended claims and their equivalents.

Claims

1. An optical lens processing waste transport device, characterized in that: include: A bracket (101), wherein a driven roller (102) and a driving roller (103) are cooperatively mounted on the bracket (101), and side plates (203) are fixedly mounted on both sides of the bracket (101); The dust removal member (300) comprises two rotating seats (301), wherein the two rotating seats (301) are respectively mounted on two side plates (203), and a hollow rotating roller (302) is rotatably mounted in the rotating seat (301); The conveyor belt (900) comprises a three-layer structure of an inner belt (901), a middle belt (902) and a surface belt (903), wherein the middle belt (902) is located between the inner belt (901) and the surface belt (903), the conveyor belt (900) is sleeved on a driven roller (102), a driving roller (103) and a hollow rotating roller (302), the surface belt (903) is provided with a groove (904), the groove (904) is provided with a plurality of material receiving troughs (905), the material receiving troughs (905) are provided with a plurality of collecting fins (906), the surface belt (903) is made of high-density polyurethane doped with 3% to 5% of conductive carbon black, and a nano-silicon carbide particle coating is provided on the surface, wherein the diameter of the nano-silicon carbide particles is 50-100 nm.

2. The optical lens processing waste transport device according to claim 1, characterized in that: A driving motor (104) is also fixedly mounted on the bracket (101), and the driving motor (104) is connected to the driving roller (103) through a corresponding belt and a pulley drive. A plurality of through holes (303) are provided on the hollow rotating roller (302). A first baffle (201) and a second baffle (202) are mounted between the two side plates (203). The dust removal member (300) is located between the first baffle (201) and the second baffle (202). An air pump (601) is mounted on the bracket (101).

3. The optical lens processing waste transport device according to claim 1, characterized in that: The inner belt (901) is made of aramid woven cloth and epoxy resin, and one side of the inner belt (901) is also provided with tooth patterns. The middle belt (902) is made of closed-cell foamed silicone, and a honeycomb carbon fiber woven fabric skeleton is embedded in the inner part.

4. The optical lens processing waste transport device according to claim 1, characterized in that: A tensioning device (500) is fixedly installed between the two side plates (203), and 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), and a plurality of sliding rods (503) are fixedly installed on one side of the supporting frame (502). The sliding rods (503) penetrate the first fixing frame (501) and slide with it. A plurality of threaded sleeves (505) are embedded and installed on the first fixing frame (501), and a tensioning screw (506) is installed on the inner thread of the threaded sleeve (505). One end of the tensioning screw (506) is slidably arranged with the supporting frame (502), and a tensioning roller (504) is installed on the supporting frame (502), and the tensioning roller (504) is arranged in cooperation with the strap (903) of the conveyor belt (900).

5. The optical lens processing waste transport device according to claim 2, characterized in that: A first cleaning member (400) is mounted between the two side plates (203); The first cleaning member (400) comprises a first hollow plate (401) and a second fixing frame (402), the first hollow plate (401) and the second fixing frame (402) being fixedly connected, the two ends of the second fixing frame (402) being respectively fixed on two side plates (203), the first hollow plate (401) being provided with a first nozzle (403) facing forward, the first nozzle (403) being arranged facing downward, the first hollow plate (401) being provided with a first diverter pipe (404), the first diverter pipe (404) being connected to the first hollow plate (401), the first hollow plate (401) being located inside the hollow rotating roller (302), and one of the air outlets of the air pump (601) being connected to the first hollow plate (401) via a first connecting pipe (602).

6. The optical lens processing waste transport device according to claim 2, characterized in that: A third baffle (206) is mounted on the second baffle (202), and a second cleaning member (800) is mounted on the inner side of the third baffle (206); The second cleaning component (800) includes a second diverter pipe (801), which is fixedly mounted on two side plates (203); a second hollow plate (802) is mounted on one side of the second diverter pipe (801); the second diverter pipe (801) is communicated with the second hollow plate (802); a plurality of second nozzles (804) are inlaid and mounted on the second hollow plate (802); the second nozzles (804) are arranged toward the conveyor belt (900); and another air outlet of the air pump (601) is communicated with the second hollow plate (802) via a second connecting pipe (603).

7. The optical lens processing waste transport device according to claim 6, characterized in that: A cleaning brush (207) is installed on the inner side of the third baffle (206), and the cleaning brush (207) is arranged in cooperation with the conveyor belt (900).

8. The optical lens processing waste transport device according to claim 6, characterized in that: A dust removal device (700) is cooperatively installed between the two side plates (203); The dust removal device (700) comprises a dust removal box (701) and a fan (703); the dust removal box (701) is fixedly mounted between two side panels (203); a dust outlet auger (702) is mounted on the lower side of the dust removal box (701); a dust outlet groove (704) is mounted on one end of the dust outlet auger (702); the dust outlet groove (704) extends out of the side panel (203); and the fan (703) is mounted on the dust removal box (701) and the side panel (203); The third baffle (206) is provided with a dust collection bin (706), and the dust collection bin (706) is connected to the dust removal box (701) via a third connecting pipe (705).

9. The optical lens processing waste transport device according to claim 2, characterized in that: A plurality of first check plates (205) are mounted on the inner side of the first baffle plate (201).

10. The optical lens processing waste transport device according to claim 2, characterized in that: A material discharge chute (204) is installed between the first baffle plate (201) and the second baffle plate (202); the material discharge chute (204) is arranged at an angle and extends to the outside of the side plate (203).

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