KR900005352Y1 - Automatic insert machine of around brush - Google Patents

Abstract

No content.

Description

Round Brush Automatic Planter

1 is a schematic front view showing the structure of the present invention.

2 is a front view showing the mounting portion of the brush body in the present article.

3 is an enlarged sectional view taken along the line C-C in FIG.

4 is a perspective view showing a conveying part of the tuft member in the present article.

5 is a front view showing the mounting and discharging state of the comb teeth in the present article.

6 is a schematic plan view showing a supply state and a cleat of a line for supporting a comb teeth in this paper.

Fig. 7 is a perspective view showing the main parts of the line cutting device in the present article.

8 is a schematic front view showing a part of the intermittent feeder portion of the brush body in the present paper.

9 is a sectional view taken along the line D-D of FIG.

FIG. 10 is a side view showing a part of a cam device for operating a seedling needle, a transfer piece, and a slit cutting device in this article; FIG.

FIG. 11 is a sectional view of an essential part of line E-E in FIG. 10. FIG.

12 is a perspective view of a part implanted in a brush body in the present article.

13 is a partially enlarged sectional view showing a state of being planted in a brush body according to the present proposal.

* Explanation of symbols for main parts of the drawings

A: brush body mounting portion B: hair removal device portion

3: feed tray 4: first cylinder

6: latch key 8: hook pin

9: 2nd cylinder 10: Guide base

11: third cylinder 13: lever

14 medium rod 15 seedling needle

16: left and right operating platform 17: comb feeder

18: push rod 19: comb feeder

20: overload 25: the first cam

26: the second cam 27: the third cam

28: drive shaft 30: feed piece

31: cutting blade 33: needle insertion piece

35: first electromagnet 36: second electromagnet

38: clutch 39: fourth cam

40: the fifth cam 41: the bias supply member

42: bite 43: electronic detection switch

The present invention relates to a circular brush automatic planting machine, in particular, the mounting portion of the brush body automatically transferred by the cylinder is moved to the left and right, and the upper and lower operation of the planting needle and the left, The right feeder is organically operated by the electronic control unit and automatically combs the comb teeth to the brush body.

Conventional brush hair removal apparatus is a situation that is produced by the manual method for each process sequentially by the operator.

In other words, the brush body is fixed to the jig and mechanical combing supplies the comb teeth and other parts daily, and then the planting process is planted on the brush body. Significant defect rates have occurred and productivity has been reduced and labor is required, leading to higher manufacturing costs.

This paper is designed to solve the problems as described above. When the brush body is fixed to the jig and fixed by the cylinder, and then automatically transferred to the planting device, the comb is supplied by a plurality of cam devices that operate according to the driving of the motor. And before, after, left. The organic operation of the right-handed flocking needle and the conveying piece is automatically performed to be planted on the brush body.

Therefore, all planting processes are automatically performed, thereby minimizing the increase of product production and the defective rate, and at the same time reducing labor, thereby increasing product productivity.

This will be described in detail with reference to the accompanying drawings.

As shown in FIGS. 1 to 3, the ratchet gear 5 on the table 2 is fixed by the first cylinder 4 and intermittently rotated by the third cylinder 11 at the rear end thereof. And a brush body mounting portion (A) for conveying the conveying stand (6) to the second cylinder (9) to the left and right, and the upper left side of the conveying table (3). And the rod 18 in the comb feeder 17 is moved left and right to the left and right operating platform 16 operated through the lever 13 and the intermediate rod 14 in FIG. On the (17) is provided a comb feeder 19, which is loaded with a large amount of comb 46 in the state pressed by a spring.

On the other hand, the tufting device portion B is the first cam to the third cam (25) (26) to the drive shaft (28) constituted by the pulley 32 to the rear of the base (1) as shown in FIG. 27 and the first cam 25 is connected to the flow difference 29 so that the needle insertion surface 33 is operated up and down in the first cam 25, and the needle insertion piece 33 is installed to be operated up and down, and the second cam is installed. The cam 26 is extended to the lever 13 and the overload 20 so that the tufts and needles 15 installed in a straight line at the ends of the lever 13 are operated up and down, and the third cam 27 is one-sided. The cutting blade 31 which cuts the 34 and supplies it to the needle insertion piece 33 is extended forward and backward, and the overload 20 has the connecting shaft 21 in the housing 23 with the spring 22. It is elastically supported and a limit switch 24 is installed at the upper contact of the housing.

At one side of the needle insertion piece 33, the transfer piece 30 is installed to move up and down by the first electromagnet 35.

As shown in FIG. 6, the pulley 32 and the driving shaft 28 on which the handle 37 is installed are provided with a clutch 38 detachable by the second electromagnet 36 and one side of the clutch 38. The fourth cam 39 having a semicircular shape and a fifth cap 40 formed at one obtuse angle are laid on the driving shaft 28 so that the transfer surface 30 is moved left and right by the fourth cap 39. The biasing supply member 41 operated by the fifth cam 40 and the stitching piece 42 is elastically installed is installed to supply the biasing 34 to the cutting blade 31.

Reference numeral 7 denotes front and rear aphids, 8 hooks, 10 guides, 12 micro switches, 49, 50 and 51 springs, 43 electronic sensing switches, 44 control box 45 switches, and 46 comb teeth. , 4 is a tuft hole, 48 is a stop pin, 52 is a connecting member.

Referring to the effect of the present invention configured in this way in detail, by operating the second electromagnet 36 as shown in Figure 6 by the switch 45 of the control box 44 to separate the clutch 38, the motor (not shown) Drive shaft 28 is rotated and the drive shaft 28 is not rotated, the brush body 5 is placed on the jig on the feed table 3 installed on the table 2 as shown in FIG. Place the first cylinder (4) to advance the brush body (5) and then operate the second cylinder (9), the feed table (3) is moved along the guide table (10) in the hair transplanter (B) When it reaches this stop by the micro switch 12 of the one side, the preparation for planting is completed.

Then, when the second clutch 36 is operated to engage the separated clutch 38, the first cam-fifth cam installed on the driving shaft 28 is organically operated in conjunction with the rotating pulley 32.

Therefore, according to the up and down movement of the lever 13 by the second cam 26, the seedling needle 15 is lowered and at the same time, the lever of the third cam 27 is operated as shown in FIGS. 4 and 5. The push rod 18 in the comb feeder 17 is advanced by the spring in the comb feeder 19 according to the movement of the left and right operating tables 16 to the right through the overload 20 spoken with (13). One earthquake comb 46 is transferred to the bottom of the seedling needle (15).

In addition, the needle insertion piece 33 operated by the first cam 25 is lowered to receive the comb teeth 46 supplied by the pusher 18 to wait for the lowering of the tufting needle 15.

On the other hand, as shown in Figure 6, when the advancing in the retracted state of the retracted biasing supply member 41, which is operated by the fifth cam (40) 42, the clamping piece 42 presses the deflection 34, The comb teeth 46, which are supplied to the cutting blade 31 and cut in a predetermined size by the cutting blade 31 advanced by the third cam 27 as shown in FIG. 7 and supplied above as shown in FIG. After being planted on the brush body 5 through the needle indentation 33 by the tufting needle 15 which is lowered together, it is raised.

At this time, one side of the seedling needle (15) serves to transport one by one the seedling hole of the brush body (5) so that the brush body (5) can be continuously planted. That is, as shown in FIGS. 6 and 8, the end portion of the conveying piece 30 delivered to the connecting member by the fourth cam 39 is pushed in the state of being pressed in the planting hole of the brush body 5 so that the brush body is pressed. When the 5 is moved and immediately retracts away from the brush body 5 by the operation of the first electromagnet 35, and is located in the next planting hole 47, the planting needle 15 is quickly removed as described above. The process of planting the comb teeth 46 and the declination 34 supplied to each is performed by the organic operation of each function continuously.

When the hair is finished in one row of the brush body 5 by the process (15 holes-16 holes), the control is transferred to the box 44 by a sensing device (not shown) and inputted by the electronic circuit. As the second electromagnet 36 separates the clutch 38, the rotation of the drive shaft 28 stops, and the feeding device is stopped while the feeding device 3 is transferred to the first seedling hole 47 by the second cylinder 9. At the same time, as shown in FIG. 3, the engaging piece 8, which is elastically supported by the spring in the holder 7, and is caught by the teeth of the ratchet 6, is operated by the operation of the third cylinder 11 as shown in FIG. By pushing the teeth intermittently to rotate the next planting hole 47 string to the right position, when the preparation is completed, the clutch 38 is engaged again and the drive shaft 28 is rotated to continue planting continuously.

When the hair is completed in the hair transplantation hole 47 formed in the horizontal arrangement around the brush body 5 while the process is continuously performed, the second electromagnet is transferred to the control box 44 by the electronic sensing switch 43. Since 36) the clutch 38 is disconnected and the power of the motor is cut off, when the planting is completed, the second cylinder 9 is operated to retract the feed table 3 from the planting unit and then retract the first cylinder 4. After removing the brush body 5 is completed the hair removal from the jig.

In this case, as shown in FIG. 11, when the overload 20 which extends the lever 13 and the second cam 26 is installed in flow, and the hair-fed operation malfunctions, the overload 20 is loaded. The rear limit switch 24 is contacted and transmitted to the emergency signal to inform the operator.

In other words, the oboe rod 20 has a limit switching 24 is attached to a portion where the connecting shaft 21 is elastically supported by the spring 22 in the housing 23 and is in contact with the connecting shaft 21 in the upper portion of the housing 23. When the driven needle 15, which is operated up and down by the lever 13, is pushed, the lever 13 is slightly raised while the connecting shaft 21 is raised together to limit the contact with the upper part of the housing 23. The switch 24 is operated to indicate that a malfunction occurs, thereby preventing the failure in advance, and at the same time serves to prevent the failure of the machine.

In the case of manual planting, pressing the switch to the control box 44 enables each function to be esophagus by an electronic control function.

As described above, the subject matter is controlled by the clutch 38, and the first, second, third, fourth, and fifth cams 25, 26, 27, 39, and 40 are each operated by the clutch 38. Since the operation and the operation of the cylinder can be organically operated by the electronic control device in order to be planted automatically, it is possible to minimize the inconvenience and defects caused by the conventional manual work and to increase the productivity.

Claims (2)

Transfer table 3 on which the ratchet gear 6 is fixed, which is fixed by the first cylinder 4 on the table 2 and intermittently rotated by the third cylinder 11 at the rear end thereof. Is transferred to the second cylinder (9) left and right, and the push rod 18 in the comb feeder 17 is moved left and right through the lever 13 and the intermediate rod 14 to the left and right operating platform (16). Being moved, and The first cam to the third cam 25, 26, 27 are arranged on the drive shaft 28 so that the first cam allows the needle insertion piece 33 to be operated up and down and the second cam is the overload 20. The lower stem 13 is struck with the lever 13 so that the feeding needle 14 with the lever 13 is pushed up and down, and the third cam squeezes the cutting blade 31 forward and backward, and the needle insertion piece 33 Clutch to which the transfer piece 30 is reciprocated up and down by the first electromagnet 35 on one side, and the pulley 32 and the drive shaft on which the handle 37 is attached are detached by the second electromagnet 36. And a semi-circular fourth cam (39) and a fifth cam (40) formed at an obtuse angle on one side of the drive shaft (28) on one side of the clutch (38) to transport the piece by the fourth cam (39). Circular brush automatic mosquitoes (33) is left and right conveyed and installed by the supply member 41 is operated by the fifth cam 40, the biting piece 42 is elastically supported. The overload (20) according to claim 1, wherein the connecting shaft (21) is elastically supported by the spring (22) in the housing (23), and the limit switch (24) is provided on the contact portion with the connecting shaft on the upper part of the housing (23). Round brush automatic planter.