Automatic filter element production equipment

Abstract

The invention belongs to the technical field of filter element production, and discloses filter element automatic production equipment which comprises a rack, a heating mechanism, a transferring mechanism and a cooling mechanism, the transfer mechanism is configured to reciprocate between the heating mechanism and the cooling mechanism so as to automatically transfer the forming mold heated by the heating mechanism into the cooling mechanism; the heating mechanism comprises a lower heating table and an upper heating table; the lower heating table is conveyed from the feeding mechanism to the heating station; the upper heating table is correspondingly arranged at the heating station and is matched with the lower heating table; the cooling mechanism comprises a lower cooling table and an upper cooling table; the lower cooling table is conveyed from the discharging mechanism to the cooling station; the upper cooling table is correspondingly arranged at the cooling station and is matched with the lower cooling table; the feeding mechanism and the discharging mechanism are both of an alternate feeding structure. In conclusion, automatic feeding, automatic heating, automatic transferring, automatic cooling and automatic discharging are integrated, the production efficiency is high, and the forming quality is good.

Description

TECHNICAL FIELD

[0001] The application belongs to the technical field of filter core production, and particularly relates to a filter core automatic production equipment. BACKGROUND

[0002] The existing filter core production is to place powder material into a mold, then place the mold containing the powder material into a hot press, the structure of the hot press is that the table surface for placing the mold is a heating platform, and another hot pressing platform is installed on the upper part of the heating platform through a cylinder and a guide rod, the mold is clamped and fixed by the two hot pressing platforms and is heated, and a certain time is kept, until the filter core in the mold is fused and formed, then the high-temperature mold is manually taken out from the hot press and placed into a cooling machine for solidification forming.

[0003] Such production method has the following defects: 1. Low production efficiency, the mold is manually carried from the hot press to the cooling machine, which is low in efficiency and requires a lot of labor; 2. There is a certain safety hazard, the temperature of the hot press is high, and the worker is easy to have an accident when carrying the mold; 3. Unstable product quality, since the mold is placed on the heating platform of the hot press, the residual heat of the heating platform continuously heats the mold and the product in it, and it is difficult to ensure that the carrying time is the same every time, which leads to different heating time of the products in each mold, resulting in certain difference in the quality parameters of the products in each mold. SUMMARY

[0004] In view of this, in order to solve the problems in the background art, the purpose of the present application is to provide a filter core automatic production equipment.

[0005] In order to achieve the above purpose, the present application provides the following technical scheme: A filter core automatic production equipment, comprising a rack, a heating mechanism, a transfer mechanism and a cooling mechanism installed on the rack; the transfer mechanism is configured to reciprocate between the heating mechanism and the cooling mechanism to automatically transfer the formed mold heated by the heating mechanism into the cooling mechanism; The heating mechanism comprises a lower heating table conveyed to a heating station by a feeding mechanism and an upper heating table correspondingly arranged at the heating station and matched with the lower heating table; The cooling mechanism comprises a lower cooling table conveyed to a cooling station by a discharging mechanism and an upper cooling table correspondingly arranged at the cooling station and matched with the lower cooling table; The feeding mechanism and the discharging mechanism both adopt an alternating feeding structure.

[0006] Preferably, the heating mechanism further comprises a heating driving cylinder driving the upper heating table to ascend or descend relative to the heating station; and the cooling mechanism further comprises a cooling driving cylinder driving the upper cooling table to ascend or descend relative to the cooling station.

[0007] Preferably, the lower cooling table and the interior of the upper cooling table are both provided with a plurality of cooling flow channels arranged side by side, and adjacent cooling flow channels are connected in series by U-shaped elbows, so that the plurality of cooling flow channels and the plurality of U-shaped elbows combine to form S-shaped flow channels.

[0008] Preferably, the feeding mechanism and the discharging mechanism both comprise an upper moving driving assembly and a lower moving driving assembly alternately operating; the lower heating table comprises a first lower heating table bolted to the upper moving driving assembly and a second lower heating table connected to the lower moving driving assembly by a lifting cylinder; and the lower cooling table comprises a first lower cooling table bolted to the upper moving driving assembly and a second lower cooling table connected to the lower moving driving assembly by a lifting cylinder.

[0009] Preferably, the upper moving driving assembly comprises two groups of upper moving tracks symmetrically distributed and an upper base installed between the two groups of upper moving tracks; the lower moving driving assembly comprises two groups of lower moving tracks symmetrically distributed and a lower base installed between the two groups of lower moving tracks, and the lifting cylinder is installed on the lower base; in a vertical projection plane, the two groups of upper moving tracks are arranged outside the two groups of lower moving tracks.

[0010] Preferably, the lower base is further provided with a lifting guide matched with the lifting cylinder, and the lifting guide comprises a guide sleeve fixedly penetrating through the lower base and a guide sliding rod slidingly penetrating through the guide sleeve.

[0011] Preferably, the transferring mechanism comprises two groups of transferring moving tracks oppositely distributed outside the feeding mechanism and the discharging mechanism and a gantry bracket moving along the transferring moving tracks, and the gantry bracket is provided with a material taking manipulator.

[0012] Preferably, the material taking manipulator comprises two groups of claw portions oppositely distributed and a material taking cylinder driving the two groups of claw portions to move towards or away from each other; the claw portion comprises a mounting seat, a clamping plate and an alignment member connecting the mounting seat and the clamping plate.

[0013] Preferably, the alignment member comprises an alignment guide rail installed on the mounting seat and an alignment sliding seat installed on the clamping plate, the alignment sliding seat is slidingly assembled on the alignment guide rail, and the alignment guide rail and the alignment sliding seat are both provided with alignment scale marks.

[0014] Preferably, the calibration guide rail is provided with a calibration rack, and the calibration slide is provided with a helical gear engaged with the calibration rack.

[0015] Compared with the prior art, the present application has the following beneficial effects: (1) The filter core automatic production equipment integrates automatic feeding, automatic heating, automatic transfer, automatic cooling and automatic discharge, can comprehensively realize automatic production of filter cores, has high production efficiency, avoids safety hazards caused by manual mold carrying and product quality differences caused by different carrying times, and is beneficial to realize standardized industrial production.

[0016] (2) In the present application, the automatic feeding and the automatic discharge both adopt a longitudinal alternating feeding structure, which greatly improves the working efficiency while reducing the overall equipment size, avoids time waste caused by waiting for mold feeding and discharging in traditional equipment, and ensures continuous and stable operation of the equipment.

[0017] (3) In the present application, the lower base is driven to lift and feed by the lifting cylinder, and a lifting guide is provided to effectively eliminate the radial swing caused by cantilever effect during movement, thereby improving the stability and accuracy during lifting and feeding.

[0018] (4) In the present application, the automatic transfer is completed by a material taking manipulator driven by a transfer moving track, and a calibration member adjusting the relative positions of the two sets of clamping plates is arranged in the material taking manipulator, so that the material taking manipulator can be flexibly applied to balanced material taking of symmetrical molds or asymmetrical molds, avoiding problems such as falling or not being placed in place due to unbalanced force on both sides during mold material taking. BRIEF DESCRIPTION OF DRAWINGS

[0019] Figure 1 is one of the three-dimensional structure diagrams of the present application; Figure 2 is another three-dimensional structure diagram of the present application; Figure 3 is a structure schematic diagram of the heating mechanism, the transfer mechanism and the cooling mechanism in the present application; Figure 4 is a structure schematic diagram of the transfer mechanism in the present application; Figure 5 is a structure schematic diagram of a group of claw parts in the present application; Figure 6 is a structure schematic diagram of the clamping plate, the calibration slide and the helical gear assembly in the present application; Figure 7 is a structure schematic diagram of the transfer mechanism and the upper moving driving assembly assembly in the present application; Figure 8 is a sectional view of the lower cooling table in the present application; Figure 9 Structure diagram of the feeding mechanism and the discharging mechanism in the application; Figure 10 Structure diagram of the feeding mechanism and the discharging mechanism in the application; In the figure: rack-1; heating mechanism-2; lower heating table-21; upper heating table-22; heating driving cylinder-23; transfer mechanism-3; transfer moving track-31; gantry support-32; material taking manipulator-33; claw-34; mounting seat-341; clamping plate-342; calibration component-343; calibration guide rail-344; calibration sliding seat-345; calibration rack-346; helical gear-347; material taking cylinder-35; cooling mechanism-4; lower cooling table-41; upper cooling table-42; cooling driving cylinder-43; cooling flow channel-44; U-shaped elbow-45; feeding mechanism-5; discharging mechanism-6; upper moving driving assembly-7; upper moving track-71; upper base-72; lower moving driving assembly-8; lower moving track-81; lower base-82; lifting guide-83; guide sleeve-831; guide sliding rod-832. DETAILED DESCRIPTION

[0020] For further understanding of the present application, the application will be described in detail with reference to the accompanying drawings and examples. The structure, proportion, size, etc. shown in the drawings of the specification are only used to cooperate with the content disclosed in the specification, to be understood and read by those skilled in the art, and are not used to limit the defined conditions that can be implemented by the application, so they do not have technical significance. Any modification of the structure, change of the proportion relationship, or adjustment of the size, without affecting the effects and purposes that can be achieved by the application, should still fall within the scope covered by the disclosed technology. At the same time, the terms such as "upper", "lower", "left", "right", "middle" and the like used in the specification are only for the convenience of clear understanding and description, and are not used to limit the scope of implementation. The change or adjustment of the relative relationship, without substantially changing the technical content, is also considered as the implementation scope of the application. It should be noted that the terms "first", "second", etc. in the specification and claims and the above-mentioned drawings are used to distinguish similar objects, and do not necessarily describe a specific order or sequence. It should be understood that the data used in this way can be interchanged under appropriate circumstances, so as to describe the embodiments of the application described herein. Example 1

[0021] As Figure 1 And Figure 2As shown, the filter core automatic production equipment provided by the present application comprises a rack 1, a heating mechanism 2, a transfer mechanism 3 and a cooling mechanism 4 installed on the rack 1. Specifically, the heating mechanism 2 and the cooling mechanism 4 are arranged along the front-rear direction, and the transfer mechanism 3 is configured to reciprocate between the heating mechanism 2 and the cooling mechanism 4 to automatically transfer the heated forming mold to the cooling mechanism 4.

[0022] For example, when producing the filter core, the powdered PE, PP, PLA, PHA, PHB and other materials are placed in the forming mold, and then the mold containing the powdered material is placed in the heating mechanism 2. The heating mechanism 2 clamps and fixes the mold and heats it for a certain period of time until the powdered material in the mold is melted. Then, the high-temperature mold is transferred from the heating mechanism 2 to the cooling mechanism 4 by the transfer mechanism 3, and the mold is cooled in the cooling mechanism 4 to solidify the filter core in the mold.

[0023] Continuing to refer to 1, the heating mechanism 2 comprises a lower heating table 21, an upper heating table 22 and a heating drive cylinder 23. The lower heating table 21 can be positioned at the heating station, and the mold containing the powdered material is placed on the lower heating table 21. The upper heating table 22 clamps the mold on the lower heating table 21 under the lifting drive of the heating drive cylinder 23 to ensure the stability of the mold positioning. The mold is symmetrically heated from the upper and lower sides by the lower heating table 21 and the upper heating table 22, so that the powdered material in the mold is heated and melted.

[0024] Continuing to refer to Figures 3-7 As shown, the transfer mechanism 3 comprises two groups of transfer moving tracks 31 distributed on the outer sides of the heating mechanism 2 and the cooling mechanism 4, and a gantry bracket 32 moving along the transfer moving tracks 31, and a material taking manipulator 33 is arranged on the gantry bracket 32. Specifically, the transfer moving tracks 31 are formed by linear motors or motor lead screw structures extending along the front-rear direction to provide guidance and drive for the movement of the gantry bracket 32 and the material taking manipulator 33. Photoelectric sensors matched with the material taking manipulator 33 are arranged on the gantry bracket 32 to accurately position the movement position of the gantry bracket 32 and the material taking manipulator 33. The material taking manipulator 33 is used to take the high-temperature mold heated at the heating station of the heating mechanism 2 and release the mold at the cooling station of the cooling mechanism 4 to cool the mold and the molten material inside.

[0025] For example, the material taking manipulator 33 includes two sets of claw parts 34 distributed oppositely and a material taking cylinder 35 driving the two sets of claw parts 34 to move oppositely or opposingly. Specifically, the moving direction of the two sets of claw parts 34 is perpendicular to the extending direction of the transfer moving track 31, that is, the material taking manipulator 33 performs symmetrical clamping on the mold left and right.

[0026] To further improve the stability of the material taking manipulator 33 clamping the mold, preferably, the claw part 34 includes a mounting seat 341, a clamping plate 342 and a calibration member 343 connecting the mounting seat 341 and the clamping plate 342 as shown. Figure 5 The calibration member 343 is used to calibrate the relative positions of the two sets of claw parts 34. Taking the symmetrical mold as an example, if it is necessary to ensure that the left and right sides of the mold are balanced when clamped by the two clamping plates 342, the initial positioning distance of the left and right clamping plates 342 relative to the material taking cylinder 35 should be equal, that is, the left and right clamping plates 342 are symmetrical relative to the material taking cylinder 35. For the asymmetrical mold, if it is necessary to ensure that the left and right clamping forces of the two clamping plates 342 acting on the mold are balanced, the two clamping plates 342 should be adjusted to the initial position eccentric to the material taking cylinder 35 according to the actual structure of the mold. Thus, the phenomenon that one side of the clamping plate 342 abuts against the mold while the other side of the clamping plate 342 does not contact the mold during the material taking process can be effectively avoided. Even if the two clamping plates 342 clamp the mold, the mold position may also be offset, and the calibration member 343 can effectively avoid the occurrence of the mold offset phenomenon. Of course, for the case that the asymmetrical mold is eccentrically placed on the lower heating table 21, the calibration member 343 can also be used to calibrate the two clamping plates 342 to accurately and evenly clamp the mold.

[0027] In a specific embodiment, the calibration member 343 includes a calibration guide rail 344 mounted on the mounting seat 341 and a calibration sliding seat 345 mounted on the clamping plate 342 as shown. Figure 5 The calibration sliding seat 345 is slidingly assembled on the calibration guide rail 344, and the calibration guide rail 344 and the calibration sliding seat 345 are both provided with calibration scale marks. Based on this, the positions of the left and right clamping plates 342 are calibrated by the movement of the calibration sliding seat 345 on the calibration guide rail 344 and the alignment of the calibration scale marks. Regarding the sliding drive of the calibration sliding seat 345, preferably, a calibration rack 346 is arranged on the calibration guide rail 344, and a calibration pin 347 is arranged on the calibration sliding seat 345 as shown. Figure 6The helical gear 347 meshing with the calibration rack 346, i.e. through the rotation of the helical gear 347 and the meshing of the helical gear 347 with the calibration rack 346, can realize the movement and self-locking of the calibration slide 345 on the calibration guide rail 344. Regarding the rotation drive of the helical gear 347, a micro motor drive can be selected, and a manual knob drive can also be selected.

[0028] Continuing to refer to 1, the cooling mechanism 4 includes a lower cooling table 41, an upper cooling table 42, and a cooling driving cylinder 43. Among them, the lower cooling table 41 can be positioned at a cooling station, and the high-temperature mold is placed on the lower cooling table 41 under the transfer transport of the transfer mechanism 3, and the upper cooling table 42 is pressed and clamped on the mold on the lower cooling table 41 under the lifting drive of the cooling driving cylinder 43, so as to ensure the stability of the mold positioning, and the mold is symmetrically cooled from the upper and lower sides through the lower cooling table 41 and the upper cooling table 42. 42, so that the molten material in the mold is quickly cooled and solidified.

[0029] In order to improve the cooling speed and cooling uniformity of the mold and the material in the mold, the inside of the lower cooling table 41 and the upper cooling table 42 is provided with a plurality of cooling flow channels 44 arranged side by side as shown. Figure 8 The adjacent cooling flow channels 44 are connected in series through U-shaped bends 45, so that the plurality of cooling flow channels 44 and the plurality of U-shaped bends 45 combine to form an S-shaped flow channel, thereby effectively improving the cooling efficiency. After cooling, the mold is taken out from the lower cooling table 41, and the molded filter element is obtained after demolding.

[0030] As described above, in the present embodiment, the heating mechanism 2 and the cooling mechanism 4 are integrated to realize the heating of the mold and the cooling of the mold, and the transfer mechanism 3 is provided to realize the automatic transfer of the high-temperature mold. Compared with manual transfer, it has the advantages of high efficiency, good safety, and accurate control of transfer time, so as to effectively solve the problem of unstable product quality. Embodiment 2

[0031] As shown in Figure 1 and Figure 2 The filter core automatic production equipment provided by the present application comprises a rack 1 and a heating mechanism 2, a transfer mechanism 3, a cooling mechanism 4, a feeding mechanism 5 and a discharging mechanism 6 installed on the rack 1. Specifically, the heating mechanism 2, the transfer mechanism 3 and the cooling mechanism 4 all adopt the same structure as that of the above-mentioned embodiment 1, except that the lower heating table 21 of the heating mechanism 2 is arranged on the feeding mechanism 5, so that the lower heating table 21 can be positioned at a heating station under the transport of the feeding mechanism 5; and the lower cooling table 41 of the cooling mechanism 4 is arranged on the discharging mechanism 6, so that the lower cooling table 41 can be positioned at a cooling station under the transport of the discharging mechanism 6.

[0032] With reference to the drawings Figure 9 and Figure 10 As shown, the feeding mechanism 5 and the discharging mechanism 6 each include an upper moving driving assembly 7 and a lower moving driving assembly 8 which are operated alternately. Specifically, in combination with Figure 3 As shown, the transfer mechanism 3 is positioned at the initial position, the feeding mechanism 5 is located at the front side of the transfer mechanism 3, and the discharging mechanism 6 is located at the rear side of the transfer mechanism 3. Figure 3 As shown, the transfer mechanism 3 is positioned at the initial position, the feeding mechanism 5 is located at the front side of the transfer mechanism 3, and the discharging mechanism 6 is located at the rear side of the transfer mechanism 3.

[0033] In an embodiment, the upper moving driving assembly 7 includes two symmetrically distributed groups of upper moving tracks 71 and an upper base 72 installed between the two groups of upper moving tracks 71. In combination with the drawings, the upper base 72 includes two oppositely distributed groups, the lower heating table 21 (first lower heating table) is bolted to one group of upper bases 72, and the lower cooling table 41 (first lower cooling table) is bolted to the other group of upper bases 72.

[0034] It should be noted that the length of the upper base 72 is equivalent to the length of the upper moving track 71, so that the upper base 72 can be extended to the outside of the rack 1 along the upper moving track 71 or retracted to the inside of the rack 1; wherein, when the upper base 72 is extended to the outside of the rack 1 as shown, it is convenient to load the first lower heating table or unload the first lower cooling table, and under this structural design, the phenomenon of the upper heating table 22 or the upper cooling table 42 being mistakenly pressed down to pinch the user can be effectively avoided. Figure 2

[0035] In an embodiment, the lower moving driving assembly 8 includes two symmetrically distributed groups of lower moving tracks 81 and a lower base 82 installed between the two groups of lower moving tracks 81. In combination with the drawings, the lower base 82 includes two oppositely distributed groups, the lower heating table 21 (second lower heating table) is connected to one group of lower bases 82 through a lifting cylinder, and the lower cooling table 41 (second lower cooling table) is connected to the other group of lower bases 82 through a lifting cylinder.

[0036] To ensure that the second lower heating table and the second lower cooling table can be moved to the heating station and the cooling station under the driving of the lifting cylinder, preferably in the vertical projection plane, the two groups of upper moving tracks 71 are oppositely arranged outside the two groups of lower moving tracks 81, that is, a feeding channel capable of passing through the second lower heating table or the second lower cooling table is formed between the two groups of upper moving tracks 71.

[0037] ​It is also necessary to point out that the length of the lower base 82 is equivalent to the length of the lower moving track 81, so that the lower base 82 can be extended to the outside of the rack 1 or retracted to the inside of the rack 1 along the lower moving track 81; when the lower base 82 is extended to the outside of the rack 1, it is convenient to load or unload the second lower heating table, and it can also effectively avoid the phenomenon of the upper heating table 22 or the upper cooling table 42 being mistakenly pressed down to pinch the user.

[0038] In summary, the embodiment integrates automatic feeding, automatic heating, automatic transfer, automatic cooling and automatic discharge, and the specific processing flow includes: (1) The upper moving drive assembly 7 drives the upper base 72 provided with the first lower heating table to extend to the outside of the rack 1 along the upper moving track 71, at which time the mold provided with powder material is placed on the first lower heating table by manual operation; (2) The mold, the first lower heating table and the upper base 72 are retracted to the inside of the rack 1 under the guidance and drive of the upper moving track 71, and the mold and the first lower heating table are transported and positioned to the heating station; (3) The upper heating table 22 is pressed to clamp the mold on the first lower heating table under the lifting drive of the heating drive cylinder 23, so as to ensure the stability of the mold positioning, and the mold is symmetrically heated from the upper and lower sides by the lower heating table 21 and the first lower heating table, so that the powder material in the mold is heated and melted; at the same time, the lower moving drive assembly 8 drives the lower base 82 provided with the second lower heating table to extend to the outside of the rack 1 along the lower moving track 81, at which time the mold provided with powder material is placed on the second lower heating table by manual operation; (4) After heating is completed, the heating drive cylinder 23 drives the upper heating table 22 to rise and reset; (5) The first lower cooling table is retracted to the inside of the rack 1 under the guidance and drive of the upper moving track 71, and the first lower cooling table is transported and positioned to the cooling station; the mold at high temperature is transferred from the first lower heating table to the first lower cooling table by the transfer mechanism 3, the upper cooling table 42 is pressed to clamp the mold on the first lower cooling table under the lifting drive of the cooling drive cylinder 43, so as to ensure the stability of the mold positioning, and the mold is symmetrically cooled from the upper and lower sides by the first lower cooling table and the upper cooling table 42, so that the molten material in the mold is quickly cooled and solidified; at the same time, the upper moving drive assembly 7 drives the upper base 72 provided with the first lower heating table to extend to the outside of the rack 1 along the upper moving track 71, at which time the mold provided with powder material is placed on the first lower heating table by manual operation, the second lower heating table on the lower base 82 and the mold are lifted to be positioned to the heating station by the lifting cylinder, and the upper heating table 22 cooperates with the second lower heating table to realize the heating of the mold and the molding material; (6) After cooling, the heating driving cylinder 23 drives the upper heating table 22 to rise and reset; (7) The upper base table 72, which is installed with the first lower cooling table, is driven by the upper moving driving assembly 7 to extend to the outside of the rack 1 along the upper moving track 71, at this time, the cooled mold is manually discharged; at the same time, the lower base table 82, which is installed with the second lower cooling table, is driven by the lower moving driving assembly 8 to retract to the inside of the rack 1 along the lower moving track 81, and under the driving of the lifting cylinder, the second lower cooling table on the lower base table 82 is lifted to be positioned at the cooling station, and the high-temperature mold is transferred from the second lower heating table to the second lower cooling table by the transfer mechanism 3; (8) The second lower heating table is lowered and reset by the driving of the lifting cylinder, and extends to the outside of the rack 1 under the driving and guidance of the lower moving track 81, at this time, the mold filled with powder material is manually placed on the second lower heating table; the second lower cooling table cooperates with the upper cooling table 42 to realize mold cooling; the first lower heating table cooperates with the upper heating table 22 to realize mold and molding material heating; (9) After cooling and heating are completed, the upper heating table 22 and the upper cooling table 42 are lifted and reset, the second lower cooling table is lowered and reset by the driving of the lifting cylinder, and extends to the outside of the rack 1 under the driving and guidance of the lower moving track 81, at this time, the cooled mold is manually discharged. At the same time, the above steps are repeated to realize continuous automatic production of the filter element.

[0039] In addition, in order to further improve the stability of the second lower heating table or the second lower cooling table during lifting, preferably, as shown in Figure 9 and as shown in Figure 10 , a lifting guide 83 cooperating with the lifting cylinder is installed on the lower base table 82, the lifting guide 83 includes a guide sleeve 831 fixedly penetrating the lower base table 82 and a guide sliding rod 832 slidingly penetrating the guide sleeve 831. Taking the lifting of the second lower heating table as an example: when the second lower heating table is lifted under the driving of the lifting cylinder, the guide sliding rod 832 fixed on the bottom of the second lower heating table is lifted synchronously, and the guide sliding rod 832 slides in the guide sleeve 831, so as to ensure the balance and stability of the second lower heating table, and effectively eliminate the radial swing caused by cantilever effect during the movement of the lifting cylinder; on the contrary, when the second lower heating table is lowered, the guide sliding rod 832 slides downwardly through the guide sleeve 831.

[0040] In the description of the present application, reference to "one embodiment", "some embodiments", "an exemplary embodiment", "an example", "a specific example", or "some examples" means that a particular feature, structure, material, or characteristic described in connection with the embodiment or example is included in at least one embodiment or example of the present application. The appearances of the phrases "in one embodiment", "in some embodiments", "in an exemplary embodiment", "an example", "a specific example", or "some examples" in various places in the specification are not necessarily referring to the same embodiment or example. Furthermore, the particular features, structures, materials, or characteristics can be combined in any suitable manner in one or more embodiments or examples.

[0041] It is noted that the foregoing are merely preferred embodiments of, and the technical principles applied to, the present application. It can be understood by those skilled in the art that the present application is not limited to the specifically described embodiments, and various obvious changes, re-adjustments, and replacements can be made by those skilled in the art without departing from the protection scope of the present application. Therefore, although the present application has been described in detail with reference to the above embodiments, the present application is not limited to the above embodiments only, but can include more other equivalent embodiments without departing from the concept of the present application, and the scope of the present application is defined by the appended claims.

Claims

1. A filter cartridge automated production apparatus, characterized by: The device comprises a rack (1), a heating mechanism (2), a transfer mechanism (3) and a cooling mechanism (4) installed on the rack (1); the transfer mechanism (3) is configured to reciprocate between the heating mechanism (2) and the cooling mechanism (4) to automatically transfer the heated forming mold from the heating mechanism (2) to the cooling mechanism (4); The heating mechanism (2) comprises a lower heating table (21) conveyed to a heating station by a feeding mechanism (5) and an upper heating table (22) correspondingly arranged at the heating station and matched with the lower heating table (21); The cooling mechanism (4) comprises a lower cooling table (41) conveyed to a cooling station by a discharging mechanism (6) and an upper cooling table (42) correspondingly arranged at the cooling station and matched with the lower cooling table (41); The feeding mechanism (5) and the discharging mechanism (6) both adopt an alternating feeding structure.

2. The filter cartridge automated production apparatus of claim 1, wherein: The heating mechanism (2) further comprises a heating driving cylinder (23) for driving the upper heating table (22) to ascend and descend relative to the heating station; the cooling mechanism (4) further comprises a cooling driving cylinder (43) for driving the upper cooling table (42) to ascend and descend relative to the cooling station.

3. The filter cartridge automated production apparatus of claim 1, wherein: The lower cooling table (41) and the upper cooling table (42) are both internally provided with a plurality of cooling flow channels (44) arranged side by side, and adjacent cooling flow channels (44) are connected in a head-to-tail manner through U-shaped elbows (45) to form S-shaped flow channels by combining the plurality of cooling flow channels (44) and the plurality of U-shaped elbows (45).

4. The filter cartridge automated production apparatus of claim 1, wherein: The feeding mechanism (5) and the discharging mechanism (6) both comprise upper moving driving assemblies (7) and lower moving driving assemblies (8) operating alternately; the lower heating table (21) comprises a first lower heating table bolted on the upper moving driving assembly (7) and a second lower heating table connected with the lower moving driving assembly (8) through a lifting cylinder; the lower cooling table (41) comprises a first lower cooling table bolted on the upper moving driving assembly (7) and a second lower cooling table connected with the lower moving driving assembly (8) through a lifting cylinder.

5. The filter cartridge automated production apparatus of claim 4, wherein: The upper moving driving assembly (7) comprises two groups of upper moving tracks (71) symmetrically distributed and an upper base (72) installed between the two groups of upper moving tracks (71); the lower moving driving assembly (8) comprises two groups of lower moving tracks (81) symmetrically distributed and a lower base (82) installed between the two groups of lower moving tracks (81), and the lifting cylinder is installed on the lower base (82); in a vertical projection plane, the two groups of upper moving tracks (71) are arranged outside the two groups of lower moving tracks (81).

6. The filter cartridge automated production apparatus of claim 5, wherein: The lower base (82) is further provided with a lifting guide (83) matched with the lifting cylinder, and the lifting guide (83) comprises a guide sleeve (831) fixedly penetrating through the lower base (82) and a guide sliding rod (832) slidingly penetrating through the guide sleeve (831).

7. The filter cartridge automated production apparatus of claim 1, wherein: The transfer mechanism (3) comprises two groups of transfer moving tracks (31) oppositely distributed outside the feeding mechanism (5) and the discharging mechanism (6), and a gantry bracket (32) moving along the transfer moving tracks (31), wherein the gantry bracket (32) is provided with a material taking manipulator (33).

8. The filter cartridge automated production apparatus of claim 7, wherein: The material taking manipulator (33) comprises two groups of claw parts (34) oppositely distributed and a material taking cylinder (35) driving the two groups of claw parts (34) to move towards or away from each other, wherein the claw part (34) comprises a mounting seat (341), a clamping plate (342) and a calibration member (343) connecting the mounting seat (341) and the clamping plate (342).

9. The filter cartridge automated production apparatus of claim 8, wherein: The calibration member (343) comprises a calibration guide rail (344) mounted on the mounting seat (341) and a calibration sliding seat (345) mounted on the clamping plate (342), the calibration sliding seat (345) is slidingly assembled on the calibration guide rail (344), and calibration scale marks are arranged on the calibration guide rail (344) and the calibration sliding seat (345).

10. The filter cartridge automated production apparatus of claim 9, wherein: A calibration rack (346) is arranged on the calibration guide rail (344), and a helical gear (347) engaged with the calibration rack (346) is arranged on the calibration sliding seat (345).

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