A 2D OPA chip rapid drying device

Abstract

This application relates to a 2D OPA chip rapid drying device for use in the chip field. It includes a transmission assembly, an air collection assembly, a cyclone assembly, and a support frame. The transmission assembly is mounted on the support frame. The cyclone assembly includes a cyclone tube, a rotating rod, and a rotating fan. The bottom of the cyclone tube is connected to the air collection assembly, and the top of the cyclone tube abuts the transmission assembly. The rotating rod rotates along the length of the cyclone tube and is connected to the cyclone tube. The rotating fan is mounted on the rotating rod. This application is effective in improving the loosening of OPA chip components caused by direct wind.

Description

Technical Field

[0001] The present application relates to the field of chips, and in particular to a 2D OPA chip rapid drying device. Background Art

[0002] The OPA chip is a new type of radar technology that uses waveguides to control the direction of light beams. It has very broad application prospects in unmanned driving, robots, smart security and other aspects. In the related technology, after the OPA chip is processed, it is cleaned to remove dust, and after cleaning, it needs to be dried to speed up the chip manufacturing process. With respect to the above-mentioned related technologies, the inventors found that there are the following defects: in the absence of a fan, the drying efficiency is low; when using power, the OPA chip is blown directly by the wind, and the components on the OPA chip will become loose. At the same time, the wind speed and air volume control accuracy are not high, which affects the quality of the OPA chip. Summary of the Invention

[0003] In order to improve the above-mentioned problems of the OPA chip during the drying process, the present application provides a 2D OPA chip rapid drying device.

[0004] The present application provides a 2D OPA chip rapid drying device that adopts the following technical solutions:

[0005] A 2D OPA chip rapid drying device includes a transmission assembly, an air collection assembly, a cyclone assembly, and a support frame. The transmission assembly is arranged on the support frame. The cyclone assembly includes a cyclone tube, a rotating rod, and a rotating fan. The bottom of the cyclone tube is connected to the air collection assembly, and the top of the cyclone tube abuts the transmission assembly. The rotating rod is rotatably connected to the cyclone tube along the length direction of the cyclone tube. The rotating fan is arranged on the rotating rod.

[0006] By adopting the above technical solution, when the 2D OPA chip after cleaning is transmitted to the top of the cyclone tube through the transmission assembly, the air collecting assembly is started, so that the air collecting assembly draws external air into the interior of the air collecting assembly, and then transmits it to the cyclone tube connected to the air collecting assembly. At this time, the rotating rod rotates synchronously, so that the wind direction entering the cyclone tube is changed, and the wind blowing directly on the chip is changed into a cyclone in other directions. The water stains adhering to the 2D OPA chip are removed by centrifugal force and friction, effectively protecting the 2D OPA chip.

[0007] Optionally, the air collecting component includes an air collecting port, an air collecting wind box and an air suction device, wherein an air collecting port is provided at one end of the air collecting wind box, and the other end of the air collecting wind box is connected to the side wall of the cyclone tube, and the air suction device is arranged on one side of the air collecting wind box close to the air collecting port.

[0008] By adopting the above technical solution, when the 2D OPA chip needs to be dried, the air suction device is started to suck the external air into the air collecting wind box through the air collecting port, and the wind with a rotating direction is transmitted to the 2D OPA chip through the cyclone tube connected to the air collecting wind box to dry the 2D OPA chip, thereby effectively protecting the 2D OPA chip.

[0009] Optionally, a filter assembly is provided in the air collecting bellows, and the filter assembly includes a heating resistor wire and a filter element. A clip-on plate is integrally formed on the inner wall of the air collecting bellows, and the filter element is inserted into the clip-on plate. A mounting port for installing the filter element is opened on the side wall of the air collecting bellows, and a covering plate is covered on the mounting port. The heating resistor wire is provided on the side of the filter element close to the air collecting port.

[0010] By adopting this technical solution, when air enters the wind box, the heating resistor activates, heating the air inside the wind box and enhancing its drying effect on the 2D OPA chip. As the air passes through the filter element, impurities in the air are adsorbed on the filter element, improving air purity and effectively protecting the 2D OPA chip. When the filter element needs to be replaced after filtering air for a period of time, the cover is opened, the filter element inserted in the wind box is removed through the installation port, and a new filter element is replaced, effectively ensuring air purity and protecting the 2D OPA chip.

[0011] Optionally, the transmission assembly includes a transmission part and a flipping part, the transmission part is arranged on the support frame, the flipping part is arranged on the side of the transmission part close to the cyclone tube, the transmission part includes a driving wheel, an auxiliary wheel and a belt, and the driving wheel is connected to the auxiliary wheel through the belt.

[0012] By adopting the above technical solution, when a 2D OPA chip is placed on the belt, the drive wheel is started. Through the cooperation of the drive wheel and the auxiliary wheel, the belt is driven to move, so that the 2D OPA chip moves from the end away from the flipping part to the end close to the flipping part. The 2D OPA chip is then flipped into the chip slot by the flipping part. The entire process does not require manual operation, thereby improving the drying efficiency of the 2D OPA chip.

[0013] Optionally, the flip part includes a flip frame, a flip plate, a cylinder, a driving rack and a driven gear, the flip frame is fixed on the support frame, the flip plate is hinged on the flip frame, the cylinder is fixed on the side wall of the flip frame, the other end of the cylinder is fixed with a driving rack, the rotating shafts at both ends of the flip plate pass through the side wall of the flip frame and are fixed to the driven gear, and the driven gear is meshed with the driving rack

[0014] By adopting the above technical solution, when the 2D OPA chip is fixed on the flip plate, the cylinder is started to extend the telescopic rod of the cylinder, and the driven gear is driven to rotate through the active rack. At this time, the flip plate fixed with the driven gear rotates synchronously. When the flip plate flips the 2D OPA chip onto the placement plate, the flip plate separates from the 2D OPA chip, and the 2D OPA chip falls on the placement plate. The entire process does not require manual operation, thereby improving the drying efficiency of the 2D OPA chip.

[0015] Optionally, the flip plate includes a limit plate, a magnetic plate and a pair of rotating rockers, one end of the rotating rocker is fixed on the flip frame, and the other end of the rotating rocker is fixed to the limit plate, a magnetic plate is fixed on the side wall of the limit plate, and a receiving groove adapted to the chip is provided on the magnetic plate.

[0016] By adopting the above technical solution, when the 2D OPA chip moves to the magnetic plate, it slides from the belt into the receiving slot due to inertia. At this time, the magnetic plate is energized, so that the magnetic chip basket containing the 2D OPA chip is adsorbed in the receiving slot. By turning the rocker, the magnetic plate is flipped from the end close to the belt to the placement plate. At this time, the magnetic plate is de-energized, so that the receiving slot and the chip basket are separated. The entire process does not require manual operation, thereby improving the drying efficiency of the 2D OPA chip.

[0017] Optionally, a rotating assembly is provided at one end of the cyclone tube close to the transmission assembly, the rotating assembly includes a rotating part and a driving part, the rotating part includes a rotating plate and a rotating column, the rotating plate is arranged around the side wall of the rotating column, a chip slot for placing a chip is provided on the rotating plate, and the rotating plate is connected to the driving part.

[0018] By adopting the above technical solution, when the 2D OPA chip is placed in the chip slot on the rotating plate, the driving unit is started to rotate the rotating plate around the rotating column. The cyclone tube dries from bottom to top, so that each 2D OPA chip in the chip slot is dried, thereby improving the drying efficiency of the 2D OPA chip.

[0019] Optionally, a baffle groove is provided on the rotating plate, and a baffle sheet is provided in the baffle groove. When the chip is placed in the chip groove, the baffle sheet fits the chip.

[0020] By adopting the above technical solution, when the 2D OPA chip is not placed in the chip slot, the baffle plate on the chip is in an open state. When the 2D OPA chip is placed in the chip slot, the weight of the 2D OPA chip presses the baffle plate downward, causing it to rotate to cover the 2D OPA chip, thereby fixing the 2D OPA chip and improving the stability of the 2D OPA chip during drying.

[0021] Optionally, a snap-fit ​​groove is provided in the baffle groove, the snap-fit ​​groove is communicated with the baffle groove, a boss is provided on the side wall of the baffle sheet, and when the chip is placed in the chip groove, the boss is snap-fitted into the snap-fit ​​groove.

[0022] By adopting the above technical solution, when the upper part of the baffle sheet covers the 2D OPA chip, the boss on the side wall of the baffle sheet is engaged in the engaging groove, so that the baffle sheet will not rotate due to the position change of the 2D OPA chip, thereby improving the stability of the 2D OPA chip during drying.

[0023] Optionally, the driving part includes a motor, a driving roller, a first interlocking wheel, a second interlocking wheel, a first conveyor belt and a second conveyor belt, the rotation center of the driving roller is fixed to the rotation axis of the motor, the driving roller is connected to the first interlocking wheel through the first conveyor belt, the second interlocking wheel is fixed to the first interlocking wheel, the second interlocking wheel is connected to the rotating column through the second conveyor belt, and the motor, driving roller, first interlocking wheel, second interlocking wheel, first conveyor belt and second conveyor belt are fixed on the support frame.

[0024] By adopting the above technical solution, when the flip plate needs to be rotated to place the 2D OPA chip on each chip slot, the motor is started to drive the drive roller to rotate, and the first linkage wheel is driven to rotate synchronously through the first conveyor belt. When the first linkage wheel rotates, the second linkage wheel connected to it rotates coaxially, causing the rotating plate to rotate around the rotating column, ultimately achieving the purpose of drying multiple 2D OPA chips simultaneously, thereby improving the drying efficiency of the 2D OPA chips.

[0025] In summary, this application has at least one of the following beneficial effects:

[0026] 1. When the cleaned 2D OPA chip is transmitted to the top of the cyclone tube through the transmission assembly, the wind collection assembly is started, so that the wind collection assembly draws external air into the interior of the wind collection assembly, and then transmits it to the cyclone tube connected to the wind collection assembly. At this time, the rotating rod rotates synchronously, so that the wind direction entering the cyclone tube changes, and the wind blowing directly on the chip is changed into a cyclone in other directions. The water stains adhering to the 2D OPA chip are removed by centrifugal force and friction, effectively protecting the 2D OPA chip.

[0027] 2. When the 2D OPA chip needs to be dried, the suction device is started to suck the external air into the air collecting box through the air collecting port. The wind with a rotating direction is transmitted to the 2D OPA chip through the cyclone tube connected to the air collecting box to dry the 2D OPA chip, effectively protecting the 2D OPA chip.

[0028] 3. When air enters the wind box, the heating resistor activates, heating the air inside and enhancing its heating effect on the 2D OPA chip. As the air passes through the filter element, impurities in the air are adsorbed on the filter element, improving air purity and effectively protecting the 2D OPA chip. When the filter element needs to be replaced after filtering air for a period of time, open the cover, remove the filter element inserted in the wind box through the installation port, and replace it with a new one, effectively ensuring air purity and protecting the 2D OPA chip. BRIEF DESCRIPTION OF THE DRAWINGS

[0029] Figure 1 This is a schematic structural diagram of a 2D OPA chip rapid drying device in an embodiment of the present application;

[0030] Figure 2 This is a schematic diagram of the internal structure of a 2D OPA chip rapid drying device in an embodiment of the present application;

[0031] Figure 3 This is a structural diagram of the wind collection component in the embodiment of the present application;

[0032] Figure 4 This is a schematic structural diagram of the turning portion in an embodiment of the present application;

[0033] Figure 5 This is a schematic structural diagram of the rotating assembly in an embodiment of the present application;

[0034] Figure 6 This is a schematic structural diagram of the rotating part in the embodiment of the present application;

[0035] Figure 7 This is a schematic structural diagram of the baffle sheet in an embodiment of the present application;

[0036] In the figure: 1. Transmission assembly; 11. Transmission unit; 111. Driving wheel; 112. Auxiliary wheel; 113. Belt; 114. Limit baffle; 1141. First width baffle; 1142. Second width baffle; 1143. Length baffle; 12. Turning unit; 121. Turning frame; 122. Turning plate; 1221. Limiting plate; 1222. Magnetic plate; 1223. Rotating rocker; 1224. Accommodating slot; 123. Cylinder; 124. Driving rack; 125. Driven gear; 13. Support frame; 2. Air collecting assembly; 21. Air collecting port; 22. Air collecting bellows; 221. Clamping plate; 222. Mounting port; 223. Cover plate; 23. Air suction device; 3. Cyclone assembly; 31. Cyclone tube; 32. Rotating rod; 33. Rotating fan; 4. Filter assembly; 41. Heating resistor wire; 42. Filter element; 5. Rotating assembly; 51. Rotating portion; 511. Rotating plate; 512. Rotating column; 513. Chip slot; 514. Baffle slot; 515. Baffle plate; 516. Snap-fit ​​slot; 517. Boss; 52. Driving portion; 521. Motor; 522. Driving roller; 523. First linkage wheel; 524. Second linkage wheel; 525. First conveyor belt; 526. Second conveyor belt. Implementation Method

[0037] The following is combined with Figure 1-7 This application is described in further detail.

[0038] The embodiment of the present application discloses a 2D OPA chip rapid drying device. Figure 1 A 2D OPA chip rapid drying device includes a transmission component 1, an air collecting component 2, a cyclone component 3 and a support frame 13. The transmission component 1 is installed on the support frame 13, and the cyclone component 3 is installed on the output side of the transmission component 1. When the transmission component 1 is started, the chip basket containing the 2D OPA chip is transferred to the cyclone component 3. The chip basket is magnetic and has a rubber pad inside, which can effectively protect the 2D OPA chip placed inside. The chip basket has a mesh structure, and air can pass through the mesh of the chip basket and directly contact the 2D OPA chip.

[0039] A limit baffle 114 is installed on the belt 113. The limit baffle 114 includes a length baffle 1143, a first width baffle 1141 and a second width baffle 1142. The first width baffle 1141 is installed on the support frame 13 and is located above the input end of the belt 113. The second width baffle 1142 is installed on the support frame 13 and is located above the output end of the belt 113. A pair of length baffles 1143 are installed between the first width baffle 1141 and the second width baffle 1142. The distance between the length baffles 1143 is the width of the chip basket. Through the limitation of the limit baffle 114, the chip basket can accurately fall into the position set by the flip part 12.

[0040] The wind collecting assembly 2 is installed below the cyclone assembly 3. When the wind collecting assembly 2 is started, air is sucked into the wind collecting assembly 2 from the outside, and is then transferred to the cyclone assembly 3 after being processed.

[0041] Reference Figure 2 The cyclone assembly 3 includes a cyclone tube 31, a rotating rod 32, and a rotating fan 33. The sidewall of the bottom of the cyclone tube 31 is connected to the wind collection assembly 2. The top of the cyclone tube 31 is attached to the transmission assembly 1. The rotating rod 32 is connected to the cyclone tube 31 by rotating along the length of the cyclone tube 31. The rotating fan 33 is fixedly mounted on the sidewall of the rotating rod 32. When the cleaned 2D OPA chip is transferred to the top of the cyclone tube 31 in the chip basket via the transmission assembly 1, the wind collection assembly 2 is activated, causing it to draw external air into the interior of the wind collection assembly 2, and then transfer it to the cyclone tube 31 connected to the wind collection assembly 2. At this time, the rotating rod 32 rotates synchronously, causing the wind entering the cyclone tube 31 to change its direction, changing the wind blowing directly on the chip into a cyclone in a different direction. The accelerated wind dries out the residual moisture adhering to the 2D OPA chip, effectively protecting the 2D OPA chip.

[0042] Reference Figure 3The air collection component 2 includes an air collection port 21, an air collection air box 22 and an air suction device 23. The air collection port 21 is provided at one end of the air collection air box 22, and the other end of the air collection air box 22 is connected to the side wall of the cyclone tube 31. The air suction device 23 is fixed to the side of the air collection air box 22 near the air collection port 21. The air can be sucked from the air collection port 21 into the air collection air box 22 through the air suction device 23, and the wind with a rotating direction is transmitted to the 2D OPA chip through the cyclone tube 31 connected to the air collection air box 22. At the same time, a filter component 4 is also installed in the air collection air box 22. The filter component 4 includes a heating resistor wire 41 and a filter element 42. A clamping plate 221 is integrally formed on the inner wall of the air collection air box 22. The filter element 42 is inserted into the clamping plate 221. The filter element 42 can be quickly removed or installed by limiting the clamping plate 221, thereby improving the drying efficiency of the 2D OPA chip. The side wall of the air collecting box 22 is provided with an installation port 222 for installing the filter element 42, and a cover plate 223 is hinged on the installation port 222, and the cover plate 223 covers the installation port 222. Through the obstruction of the cover plate 223, when the air suction device 23 is started, the entire air collecting box 22 vibrates, and the filter element 42 can be stably fixed in the air collecting box 22, thereby improving the stability of the air collecting assembly 2. A heating resistor 41 is installed on the side of the filter element 42 close to the air collecting port 21. When air enters the air collecting box 22, the heating resistor 41 is started, so that the air in the air collecting box 22 is heated, thereby enhancing its drying effect on the 2D OPA chip. When the air passes through the filter element 42, impurities in the air will be adsorbed on the filter element 42, thereby improving the purity of the air and effectively protecting the 2D OPA chip. When the filter element 42 needs to be replaced after filtering the air for a period of time, open the cover plate 223, pull out the filter element 42 inserted in the air collecting box 22 from the installation port 222, and replace it with a new filter element 42, which effectively ensures the purity of the air and protects the 2D OPA chip.

[0043] Reference Figure 4 and Figure 5 A rotating assembly 5 is installed at one end of the cyclone tube 31 close to the transmission assembly 1. The rotating assembly 5 includes a rotating part 51 and a driving part 52. The rotating part 51 includes a rotating plate 511 and a rotating column 512. The rotating plate 511 is arranged around the side wall of the rotating column 512. The number of rotating plates 511 can be 4. A chip slot 513 for placing a chip is opened on the rotating plate 511. The rotating plate 511 is connected to the driving part 52.

[0044] Reference Figure 5 and Figure 6The rotating plate 511 is provided with baffle slots 514, which are located on either side of the chip slot 513 in the longitudinal direction. Baffle plates 515 are hingedly connected within the baffle slots 514. When the chip basket is not placed within the chip slot 513, the baffle plates 515 extend out of the end surfaces of the chip slot 513 due to their elasticity. When the chip basket is placed within the chip slot 513, the baffle plates 515 adhere to the chip basket. The weight of the chip basket secures the chip basket within the chip slot 513, improving the stability of the 2D OPA chips during drying. The drive unit 52 is then activated, causing the rotating plate 511 to rotate about the rotating column 512. The cyclone tube 31 dries the 2D OPA chips within the chip slot 513 from bottom to top, thereby drying each 2D OPA chip within the chip slot 513 and improving the drying efficiency of the 2D OPA chips.

[0045] Reference Figure 6 and Figure 7 A snap-fitting slot 516 is defined within the baffle slot 514 and communicates with the baffle slot 514. A boss 517 is formed on the sidewall of the baffle plate 515. When a chip is placed in the chip slot 513, the boss 517 snaps into the snap-fitting slot 516. When the upper portion of the baffle plate 515 is placed over the chip basket, the boss 517 on the sidewall of the baffle plate 515 snaps into the snap-fitting slot 516, preventing the baffle plate 515 from rotating due to changes in the position of the 2D OPA chip, thereby improving the stability of the 2D OPA chip during drying.

[0046] Reference Figure 5 The driving part 52 includes a motor 521, a driving roller 522, a first interlocking wheel 523, a second interlocking wheel 524, a first conveyor belt 525 and a second conveyor belt 526. The rotation center of the driving roller 522 is fixed to the rotation axis of the motor 521. The driving roller 522 is connected to the first interlocking wheel 523 through the first conveyor belt 525. The second interlocking wheel 524 is fixed to the first interlocking wheel 523. The second interlocking wheel 524 is connected to the rotating column 512 through the second conveyor belt 526. The motor 521, the driving roller 522, the first interlocking wheel 523, the second interlocking wheel 524, the first conveyor belt 525 and the second conveyor belt 526 are fixed on the support frame 13. When a chip basket containing a 2D OPA chip is placed on each chip slot 513, the flip plate 122 is rotated, starting the motor 521, driving the drive roller 522 to rotate, and the first linkage wheel 523 is driven to rotate synchronously via the first conveyor belt 525. When the first linkage wheel 523 rotates, the second linkage wheel 524 connected to it rotates coaxially, causing the rotating plate 511 to rotate around the rotating column 512, ultimately achieving the purpose of drying multiple 2D OPA chips simultaneously, thereby improving the drying efficiency of the 2D OPA chips.

[0047] Reference Figure 4The transmission assembly 1 includes a transmission part 11 and a flip part 12. The transmission part is arranged on the support frame 13, and the flip part 12 is arranged on the side of the transmission part 11 close to the cyclone tube 31. The transmission part 11 includes a driving wheel 111, an auxiliary wheel 112 and a belt 113. The driving wheel 111 is connected to the auxiliary wheel 112 through the belt 113. Start the driving wheel 111, and through the cooperation of the driving wheel 111 and the auxiliary wheel 112, drive the belt 113 to move, so that the chip basket moves from the end away from the flip part 12 to the end close to the flip part 12. The flip part 12 includes a flip frame 121, a flip frame 121, a cylinder 123, a driving rack 124 and a driven gear 125. The flip frame 121 is fixed on the support frame 13, and the flip frame 121 is hinged on the flip frame 121. One end of the cylinder 123 is fixed to the side wall of the flip frame 121, and the other end of the cylinder 123 is fixed with a driving rack 124. The rotating shafts at both ends of the flip frame 121 pass through the side wall of the flip frame 121 and are fixed to the driven gear 125. The driven gear 125 and the driving rack 124 are meshed. The flip frame 121 includes a limit plate 1221, a magnetic plate 1222 and a pair of rotating rockers 1223. One end of the rotating rocker 1223 is fixed to the flip frame 121, and the other end of the rotating rocker 1223 is fixed to the limit plate 1221. The magnetic plate 1222 is fixed on the side wall of the limit plate 1221, and the magnetic plate 1222 is provided with a receiving slot 1224 adapted to the 2D OPA chip. When the 2D OPA chip is precisely moved into the receiving slot 1224 on the magnetic plate 1222, the magnetic plate 1222 is energized, causing the magnetic chip basket containing the 2D OPA chip to be attracted to the receiving slot 1224. At this time, the cylinder 123 is activated, causing its telescopic rod to extend, driving the driven gear 125 to rotate via the active rack 124 fixed to it. At this time, the flip frame 121 fixed to the driven gear 125 rotates synchronously. By rotating the rocker 1223, the magnetic plate 1222 is flipped from the end closest to the belt 113 to the adjacent second spin-drying assembly 2. At this time, the magnetic plate 1222 is de-energized, separating the receiving slot 1224 from the chip basket. Since the chip basket is precisely fixed in the receiving slot 1224, after the flip, the chip basket can be precisely fixed in the pre-set position on the second spin-drying assembly 2. The entire process requires no manual operation, improving the drying efficiency of the 2D OPA chips.

[0048] The implementation principle of a 2D OPA chip rapid drying device in an embodiment of the present application is as follows: a chip basket containing 2D OPA chips is placed at one end of the conveying part 11, and the conveying part 11 is started to transfer the chips from one end of the conveying part 11 to the other end. At this time, the flipping part 12 is started to flip the 2D OPA chips onto the rotating plate 511 and then fixed. The air collecting component 2 is started to heat the air. When the air passes through the cyclone tube 31, the straight air is changed to a spiral direction. Finally, the driving part 52 is started to rotate the rotating plate 511 around the rotating column 512 to dry each 2D OPA chip with detergent.

[0049] The above are all preferred embodiments of the present application, and are not intended to limit the scope of protection of the present application. Therefore, any equivalent changes made based on the structure, shape, and principle of the present application should be included in the scope of protection of the present application.

Claims

1. A 2D OPA chip rapid drying device, characterized by: The invention comprises a transmission component (1), an air collecting component (2), a cyclone component (3) and a support frame (13), wherein the transmission component (1) is arranged on the support frame (13), the cyclone component (3) comprises a cyclone tube (31), a rotating rod (32) and a rotating fan (33), the bottom of the cyclone tube (31) is connected to the air collecting component (2), the top of the cyclone tube (31) is against the transmission component (1), the rotating rod (32) is connected to the cyclone tube (31) by rotating along the length direction of the cyclone tube (31), and the rotating fan (33) is arranged on the rotating rod (32); the invention is characterized in that: the air collecting component (2) comprises an air collecting port (21), an air collecting air box (22) and an air suction device (23), one end of the air collecting box (22) is provided with an air collecting port (21), the other end of the air collecting box (22) is communicated with the side wall of the cyclone tube (31), and the air suction device (23) is arranged on a side of the air collecting box (22) close to the air collecting port (21); a filter assembly (4) is provided in the air collecting box (22), and the filter assembly (4) includes a heating resistance wire (41) and a filter element (42); a clamping plate (221) is integrally formed on the inner wall of the air collecting box (22), and the filter element (42) is inserted into the clamping plate (221); a filter element (42) for installing the filter element (42) is provided on the side wall of the air collecting box (22). 2) of the mounting port (222), the mounting port (222) is covered with a covering plate (223), and the filter element (42) is provided with the heating resistance wire (41) on the side close to the air collecting port (21); the transmission assembly (1) comprises a transmission part (11) and a flip part (12), the transmission part (11) is provided on the support frame (13), the flip part (12) is provided on the side of the transmission part (11) close to the cyclone tube (31), the transmission part (11) comprises a driving wheel (111), an auxiliary wheel (112) and a belt (113), the driving wheel (111) is connected to the auxiliary wheel (112) through the belt (113); the The flip part (12) comprises a flip frame (121), a flip plate (122), a cylinder (123), a driving rack (124) and a driven gear (125); the flip frame (121) is fixed on the support frame (13); the flip plate (122) is hinged on the flip frame (121); the cylinder (123) is fixed on the side wall of the flip frame (121); the other end of the cylinder (123) is fixed with a driving rack (124); the rotating shafts at both ends of the flip plate (122) pass through the side wall of the flip frame (121) and are fixed to the driven gear (125); the driven gear (125) and the driving rack (124) are meshed;The flip plate (122) includes a limit plate (1221), a magnetic plate (1222) and a pair of rotating rockers (1223), one end of the rotating rocker (1223) is fixed to the flip frame (121), and the other end of the rotating rocker (1223) is fixed to the limit plate (1221), a magnetic plate (1222) is fixed on the side wall of the limit plate (1221), and a receiving groove (1224) adapted to the chip is provided on the magnetic plate (1222); the cyclone tube (31) is provided with a rotating assembly (5) at one end close to the transmission assembly (1), and the rotating assembly (5) The invention comprises a rotating part (51) and a driving part (52), wherein the rotating part (51) comprises a rotating plate (511) and a rotating column (512), wherein the rotating plate (511) is arranged around the side wall of the rotating column (512), and a chip slot (513) for placing a chip is provided on the rotating plate (511), and the rotating plate (511) is connected to the driving part (52); a baffle slot (514) is provided on the rotating plate (511), and a baffle sheet (515) is provided in the baffle slot (514), and when the chip is placed in the chip slot (513), the baffle sheet (515) is in contact with the chip. The chip; a snap-in groove (516) is provided in the baffle groove (514), the snap-in groove (516) and the baffle groove (514) are communicated, a boss (517) is provided on the side wall of the baffle plate (515), and when the chip is placed in the chip groove (513), the boss (517) is snap-fitted into the snap-in groove (516); the driving part (52) includes a motor (521), a driving roller (522), a first linkage wheel (523), a second linkage wheel (524), a first conveyor belt (525) and a second conveyor belt (526), ​​the driving roller (522) The rotation center is fixed to the rotation axis of the motor (521); the driving roller (522) is connected to the first interlocking wheel (523) via the first conveyor belt (525); the second interlocking wheel (524) is fixed to the first interlocking wheel (523); the second interlocking wheel (524) is connected to the rotating column (512) via the second conveyor belt (526); the motor (521), the driving roller (522), the first interlocking wheel (523), the second interlocking wheel (524), the first conveyor belt (525) and the second conveyor belt (526) are fixed to the support frame (13);

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