[0020] detailed description
[0021] The present invention will be further described below with reference to the drawings.
[0022] As attached figure 1 Attached Figure 5 As shown: an activated carbon dispensing machine, comprising a mounting base 3 provided with a vertical plate 31, a feed pipe 4 of a feed hopper 41 which is located on the front side of the vertical plate 31 and is connected to the mounting base 3 with a hopper 41 on the side wall, sleeves A guide sleeve 5 that penetrates through the upper and lower ends of the guide grooves and two guide blocks respectively connected to the rear end of the guide sleeve 5 and the mounting seat 3 are provided on the outside and the rear end of the feed pipe 4, which are sequentially located at the side seal below the feed pipe 4 Device 6, non-woven tube transfer device 7 and end sealing and cutting device 8, a quantitative feeding device 9 located above the feeding hopper 41, a steering roller 1 located above the feeding tube 4 and having a horizontal axis and parallel to the vertical plate 31 , The non-woven fabric roll feeding roller 2 whose axis is parallel to the axis of the steering roller 1; the guide sleeve 5 and the feeding tube 4 are in clearance fit.
[0023] In this embodiment, the feed tube 4 includes an upper feed tube 42, a frustum-shaped feed tube 43 welded with a large end and a lower end of the upper feed tube 42, and a lower end welded with the small end of the frustum-shaped feed tube 43 at the upper end. Feeding pipe 44; Feeding hopper 41 is located at the upper end of the side of the upper feeding pipe 42; Guide sleeve 5 includes a flexible guide sleeve 51 sleeved outside the frustum-shaped feed pipe 43 and an upper guide sleeve 52 located below the flexible guide sleeve 51 , The lower guide sleeve 53 sleeved outside the lower feed pipe 44; the guide groove includes a guide groove 54 at the rear end of the flexible guide sleeve 51 and penetrates the upper and lower ends, and an upper guide groove 55 at the rear end of the upper guide sleeve 52 and penetrates the upper and lower ends, The lower guide groove 56 is located at the rear end of the lower guide sleeve 53 and penetrates the upper and lower ends; the guide block includes two guide blocks 57 which are respectively connected to the rear end of the flexible guide sleeve 51 and the vertical plate 31 by screws, and two are respectively connected to the rear of the upper guide sleeve 52 The upper guide block 58 is screwed to the vertical plate 31, and two lower guide blocks 59 are screwed to the rear end of the lower guide sleeve 53 and the vertical plate 31. The material of the flexible guide sleeve 51 is a textile cloth with a thickness of 2 mm.
[0024] The width of the upper end of the guide groove 54 is greater than the width of the lower end; the width of the upper end of the upper guide groove 55 is greater than the width of the lower end; the width of the lower end of the guide groove 54 is greater than the width of the upper end of the upper guide groove 55; the width of the lower end of the upper guide groove 55 is greater than that of the lower guide groove 56 width.
[0025] The side sealing device 6 includes two heating components arranged side by side in a horizontal direction; the heating components include a bottom plate 61 screwed to the front side of the vertical plate 31, and two blocks arranged side by side in the vertical direction and respectively connected to the front face of the bottom plate 61 by screws. Strip 62, a fixing strip 63 located at one end of the two stop strips 62 and screwed to the front surface of the bottom plate 61, is located between the two stop strips 62 and has a width matching the distance between the opposite sides of the two stop strips 62. Block 64, an adjusting screw 65 with the front end of the screw threaded through the fixing bar 63 and threadedly connected with the heating block 64; two heating blocks 64 are located on opposite sides of the two heating components. The heating block 64 is an electric heating block.
[0026] The non-woven fabric tube transfer device 7 includes two rotating shafts 71 arranged laterally side by side and pivotally connected to the vertical plate 31 through a bearing, two rubber rollers 72 each keyed to the front end of a rotating shaft 71, and the two meshing with each other And each of the transmission gear 73 connected with the rear end of a rotating shaft 71, the fixing frame 74 screwed to the rear side of the vertical plate 31, and the motor 75 of the moving device screwed to the fixing frame 74, mesh with a transmission gear 73 and engage with The driving gear 76 is keyed to the output shaft of the motor 75 of the mobile device.
[0027] The end seal cutting device 8 includes a fixed frame 82 provided with two guide posts 81 and screwed to the front side of the vertical plate 31, two fixed heating strips 83 arranged in the vertical direction and two fixed heating strips The undercut groove 84 between 83 and the fixed pressure block 86 screwed to the rear frame strip 85 of the fixed frame 82 is provided with two dynamic heating strips 87 opposite to one fixed heating strip 83 and two dynamic heating strips located thereon. The dynamic pressure block 89 of the knife containing groove 88 between 87 and the cutter 810 located in the knife containing groove 88 is provided with two cross beams 812 of a guide sleeve 811 each sleeved on a guide post 81, located on the vertical plate 31 The two rear ends of the push-pull plate 813 are screwed to the push-pull plate 813, and the front end passes through the pull rod 814 that is threadedly connected to one end of the vertical plate 31 and the cross beam 812, and the cylinder seat 815 that is screwed to the back of the vertical plate 31, and The cylinder seat 815 is screwed and the cylinder rod is threadedly connected to the push-pull plate 813. The cylinder 816 has two guide rods 817 and two compression springs 818; the front end of the dynamic pressure block 89 is provided with two grooves that penetrate the cutter 810 and have a diameter and a guide. The rod 817 has a clearance fit guide rod hole 819; each guide rod 817 passes through a guide rod hole 819 and its two ends are respectively threaded with the beam 812 and the cutter 810; each compression spring 818 is sleeved outside a guide rod 817 and Both ends press the rear end of the cross beam 812 and the front end of the dynamic pressure block 89 respectively. The fixed heating strip 83 and the dynamic heating strip 87 are both electric heating strips.
[0028] The quantitative feeding device 9 includes a lower plate 92 located above the feeding pipe 4 and provided with a feeding hole 91 communicating with the feeding hopper 41, provided with four passing holes 93 distributed along the circumference, and the lower end is connected to the lower end The plate 92 is pivotally connected to the turntable 94 through a bearing. The inner diameter of the turntable 94 is in clearance fit with the outer diameter of the turntable 94 and the side ring 95 is screwed to the upper end of the lower plate 92. The upper plate 97 is provided with a feed hole 96 and is screwed to the upper end of the side ring 95. The feed hopper 98 whose lower end is in communication with the feed hole 96 and is screwed to the upper plate 97, is screwed to the mounting base 3 and the output shaft is keyed to the lower end of the turntable 94, and is screwed to the mounting base 3 and the lower plate 92 respectively. Connected bracket 910.
[0029] When the activated carbon dispensing machine is used, one end of the non-woven fabric roll 10 mounted on the non-woven fabric roll feeding roller 2 is turned by the turning roller 1 and then wrapped around the feeding tube 4 and passes through the guide sleeve 5 and the feed In the gap between the tubes 4, the two sides of the non-woven fabric roll overlap and pass through the guide groove and the two guide blocks, the two heating blocks 64 of the side sealing device 6, and the two glues of the non-woven tube transfer device 7. Between the rollers 72, after being heated by the two heating blocks 64, the overlapping ends of the non-woven fabric rolls are bonded to form a non-woven fabric tube; the cylinder rod of the cylinder 816 of the end sealing and cutting device 8 passes through the push-pull plate 813, two The tie rod 814 and the cross beam 812 pull the dynamic pressure block 89 to move. One end of the non-woven fabric tube is heated and sealed by the fixed heating strip 83 and the dynamic heating strip 87 to form one end of the non-woven bag. The cylinder rod of the cylinder 816 passes through the push-pull plate 813 , The two tie rods 814 and the cross beam 812 push the dynamic pressure block 89 to reset; the stepping motor 99 drives the turntable 94 to rotate, so that a feeding hole 93 is opposite to the feeding hole 91, and the specified amount of activated carbon in the feeding hole 93 passes from the feeding hole 91. The feeding hopper 41 and the feeding tube 4 are filled with a non-woven fabric tube. The motor of the non-woven fabric tube transfer device 7 drives the two rubber rollers 72 to rotate oppositely through the driving gear 76, the two transmission gears 73 and the two rotating shafts 71 Drive the non-woven tube down, and at the same time, under the gravity of the activated carbon in the non-woven tube, the non-woven tube will move down by one bag distance. The cylinder rod of the cylinder 816 of the end-sealing cutoff device 8 passes through the push-pull plate 813 and two tie rods. 814. The beam 812 pulls the dynamic pressure block 89 to move, the non-woven fabric tube is heated by two fixed heating strips 83 and two dynamic heating strips 87 and then sealed, while the cutting knife 810 cuts and seals to form the other end of the non-woven bag and the next At one end of the non-woven bag, the cylinder rod of the cylinder 816 is pushed by the push-pull plate 813, the two tie rods 814, and the cross beam 812 to push the dynamic pressure block 89 to reset; the stepping motor 99 drives the turntable 94 to rotate, so that the activated carbon in the hopper 98 falls into one The feed hole 93 is ready for the next filling.
[0030] The beneficial effects of the invention are: the activated carbon dispensing machine has high dispensing efficiency and will not affect the health of the dispensing personnel. The guide sleeve includes a flexible guide sleeve, an upper guide sleeve and a lower guide sleeve. The feeding tube includes an upper feeding tube, a truncated cone-shaped feeding tube and a lower feeding tube, which is convenient for the non-woven roll to wrap around the feeding tube and gradually become round Not easy to break. The width of the upper end of the guide groove is greater than the width of the lower end, so that the two sides of the non-woven fabric roll overlap and are not easily damaged. The side sealing device has a simple and practical structure, and the width of the gap between the two heating blocks can be adjusted through two adjusting screws. The structure of the non-woven tube transfer device and the quantitative feeding device is simple and practical. The end-sealing cutting device has a simple and practical structure, and the compression spring makes the heating strip press tight without affecting the cutting knife to cut the heated sealing of the non-woven tube. The turning roller makes the non-woven fabric roll wrap around the feeding tube and gradually becomes round and not easy to break.
[0031] It is obvious to those skilled in the art that the present invention can be changed into various ways, and such changes are not considered to depart from the scope of the present invention. All such modifications obvious to those skilled in the art will be included in the scope of the claims.
