CN207903387U - A kind of small-sized tiles material delivery system - Google Patents

Abstract

The utility model provides a small tile-shaped material supply device, which includes a magnetic tile bottom plate, a pusher slider is installed on the upper surface of the magnetic tile bottom plate, the pusher slider passes through the second sleeve, and the first The surface of the second sleeve separated from the magnetic tile bottom plate is installed with the first sleeve, the rotating plate and the rotating cylinder in sequence from near to far; one cylinder, one rotating cylinder and several parts are assembled, the structure is stable, and it is not easy to produce Deformation, low cost, compact mechanism, the magnetic tiles are fed through the device, which can prevent the magnetic tiles from being broken.

Description

A small tile-shaped material supply device

technical field

The utility model belongs to the field of mechanical equipment, in particular to a small tile-shaped material supply device.

Background technique

When traditional small tile-shaped materials are fed, they basically use a circular vibrating plate and a cylinder for feeding, or directly use a circular vibrating plate for feeding. The circular vibrating plate is a An auxiliary equipment for automatic assembly machinery, which can discharge various products in an orderly manner. The circular automatic feeding vibrating plate is mainly composed of a hopper, a chassis, a controller, a linear feeder and other supporting components. There is a pulse electromagnet under the hopper of the automatic feeding vibrating plate, which can make the hopper vibrate in the vertical direction. Due to the inclination of the spring piece, the hopper makes torsional vibration around its vertical axis. Due to this vibration, the parts in the hopper rise along the spiral track until they are sent to the discharge port. At present, when a circular vibrating plate is used for feeding, some tile-shaped materials are constantly vibrating and broken in the circular vibrating plate; the manufacture of the circular vibrating plate is complicated and costly; it is easy to jam the material.

Utility model content

The purpose of this utility model is to provide a small tile-shaped material supply device for the above-mentioned deficiencies in the prior art, which can prevent the magnetic tiles from being broken, has low cost, and has a compact mechanism.

In order to achieve the above object, the utility model adopts the following technical solutions:

The utility model provides a small-sized tile-shaped material supply device, which includes a magnetic tile bottom plate, a pushing slider is installed on the upper surface of the magnetic tile bottom plate, the pushing slider passes through the second sleeve, and the first The surface of the second sleeve separated from the magnetic tile bottom plate is installed with a first sleeve, a rotating plate and a rotating cylinder in sequence from near to far; the second sleeve is provided with a first guide block and a buffer block, The first guide block is installed on the buffer block, and the first guide block is equipped with a rotatable distribution shaft, and a paddle is installed in the middle of the distribution shaft, and the paddle can follow the The material distribution shaft rotates; the shaft of the rotary cylinder is fixedly connected with the material distribution shaft, and the rotary cylinder can drive the material distribution shaft to rotate;

One end of the first sleeve separated from the second sleeve is provided with an opening;

A detection seat and a proximity switch are also installed on the magnetic tile bottom plate, two rotatable induction blocks are installed on the detection seat, and a side adjacent to the pushing slider is provided on the second sleeve. There are two photoelectric switches.

Further, the detection seat and the proximity switch are installed on the lower surface of the magnetic tile bottom plate and correspond to the second sleeve.

Further, one end of the pusher slider is provided with a limit stopper, and the other end of the pusher slider is provided with a second guide block, and the second guide block has two pieces, which are respectively arranged on the sides of the pusher slider. two sides, and connected with the second sleeve.

Further, a magnetic tile cylinder seat is installed on the end of the pushing slider adjacent to the limit stop, and a telescopic cylinder is installed on the side of the magnetic tile cylinder seat away from the limit stop. The telescopic cylinder is connected to the pusher slider through an M5 dynamic joint; driven by the telescopic cylinder, the pusher slider moves back and forth along the direction of the second sleeve.

Further, there are two induction blocks and two proximity switches, which are respectively installed on both sides of the detection base.

Further, two photoelectric switches are arranged on both sides of the pushing slider.

Further, the four corners of the lower surface of the magnetic tile bottom plate are respectively equipped with upright posts.

The utility model also provides an operation method of a small tile-shaped material supply device, which includes the following steps:

S1. The first magnetic tile enters from the opening of the first sleeve and falls into the cavity of the second sleeve by its own gravity. The first magnetic tile presses the induction block on the side of the opening of the first sleeve. The rotation of the induction block is sensed by the proximity switch on the side of the opening;

S2. The second magnetic tile enters from the opening of the first sleeve and falls onto the first magnetic tile in the second sleeve by its own gravity. The photoelectric switch on the side of the opening of the first sleeve senses The second magnetic tile, at this time, the rotating cylinder responds, driving the paddle and the material distribution shaft to rotate 180 degrees, and the paddle drives the second magnetic tile to rotate 180 degrees and fall into the cavity on the other side of the second sleeve;

S3. The second magnetic tile presses the induction block on the other side by its own gravity, and the rotation of the induction block is sensed by the proximity switch on the same side; the third magnetic tile enters from the opening of the first sleeve, and is controlled by its own gravity. When it falls on the first magnetic tile in the second sleeve, the photoelectric switch on the side of the opening of the first sleeve senses the third magnetic tile. The shaft rotates 180 degrees, and the pick drives the third magnetic tile to rotate 180 degrees and fall into the cavity on the other side of the second sleeve;

S4. The third magnetic tile falls onto the second magnetic tile in the second sleeve by its own gravity, and the photoelectric switch on the other side of the first sleeve senses the third magnetic tile. At this time, the two photoelectric switches, two Both proximity switches have induction, and the telescopic cylinder will do the stretching action to push the first magnetic tile and the second magnetic tile out of the second sleeve, and transport the first magnetic tile and the second magnetic tile to the next working station. Position; the second guide block and the first guide block guide the first magnetic tile and the second magnetic tile that are pushed out.

The beneficial effects of the utility model are: a cylinder, a rotating cylinder and several parts are assembled, the structure is stable, not easy to deform, the cost is low, the mechanism is compact, and the magnetic tile is fed through the device, which can prevent the magnetic tile from being broken.

1) The rotation of the rotary cylinder is triggered by the photoelectric switch, so that the magnetic tile rotates from one side of the sleeve to the other side, and the photoelectric switch on both sides is triggered by the magnetic tile;

2) The gravity of the magnetic tile itself falls on the induction block, causing the induction block to rotate, thereby triggering the proximity switch. When both the photoelectric switches and proximity switches on both sides are triggered, the telescopic cylinder drives the pusher slider to move, thereby moving the magnetic tile Export, this process has strong coherence, and there will be no phenomenon of stuck magnetic tiles.

Description of drawings

Fig. 1 is a structural schematic diagram of a small-sized tile-shaped material supply device;

Fig. 2 is a schematic cross-sectional structure diagram of a small tile-shaped material supply device;

1. Limit block; 2. Pusher slider; 3. Rotary plate; 4. Rotary cylinder; 5. Second sleeve; 6. First sleeve; 7. Photoelectric switch; 8. Second guide block; 9. Column; 10. Induction block; 11. Proximity switch; 12. Magnetic tile bottom plate; 13. Telescopic cylinder; 14. Magnetic tile cylinder seat; 15. M5 movable joint; 16. Magnetic tile; 17. Pick piece; 18. Distributing shaft; 19, first guide block; 20, detection seat; 21, buffer block.

Detailed ways

In order to make the purpose, technical solutions and advantages of the utility model clearer, the utility model will be further described in detail below in conjunction with the accompanying drawings and embodiments. It should be understood that the specific embodiments described here are only used to explain the utility model, and are not intended to limit the utility model.

Please refer to Fig. 1 and Fig. 2, a small-sized tile-shaped material supply device includes a magnetic tile bottom plate 12, and a pusher slider 2 is installed on the upper surface of the magnetic tile bottom plate 12, and the pusher slider 2 passes through the first Two sleeves 5, the surface of the second sleeve 5 separated from the magnetic tile bottom plate 12, the first sleeve 6, the rotating plate 3 and the rotating cylinder 4 are installed in sequence from near to far; the second sleeve The cylinder 5 is provided with a first guide block 19 and a buffer block 21, the first guide block 19 is installed on the buffer block 21, and the first guide block 19 is equipped with a rotatable distribution shaft 18 , the middle part of the distribution shaft 18 is equipped with a plectrum 17, and the plectrum 17 can rotate with the distribution shaft 18; the shaft of the rotary cylinder 4 is fixedly connected with the distribution shaft 18, and the rotation Cylinder 4 can drive described distribution shaft 18 to rotate;

That is, the rotary cylinder 4 is connected to the first sleeve 6 through the rotary plate 3 . The buffer baffle 21 is installed on the bottom of the second sleeve 5 opposite to the first sleeve 6 .

One end of the first sleeve 6 separated from the second sleeve 5 is provided with an opening;

A detection seat 20 and a proximity switch 11 are also installed on the magnetic tile bottom plate 12, and two rotatable induction blocks 10 are installed on the detection seat 20, and the second sleeve 5 is connected with the pushing slider 2 adjacent sides are provided with two photoelectric switches 7 .

The detection seat 20 and the proximity switch 11 are installed on the lower surface of the magnetic tile bottom plate 12 and correspond to the second sleeve 5 .

That is, the proximity switch 11 is installed on one side of the detection base 20 .

One end of the pusher slider 2 is provided with a limit block 1, and the other end of the pusher slider 2 is provided with a second guide block 8, and the second guide block 8 has two pieces, which are respectively arranged on the pusher block. The two sides of the slider 2 are connected with the second sleeve 5 . The second guide slider 8 can guide the magnetic tile 16 into the next process.

The end of the pushing slider 2 adjacent to the limit block 1 is equipped with a magnetic tile cylinder block 14, and the side of the magnetic tile cylinder block 14 separated from the limit block 1 is equipped with a telescopic Cylinder 13, the telescopic cylinder 13 is connected with the pusher slider 2 through the M5 dynamic joint 15; driven by the telescopic cylinder 13, the pusher slider 2 moves along the second sleeve 5 moving back and forth in the direction.

That is, driven by the telescopic cylinder 13 , the magnetic shoe in the second sleeve 5 can be pushed out from the second sleeve 5 .

There are two sensing blocks 10 and two proximity switches 11 , which are respectively installed on both sides of the detection base 20 .

That is, the induction block 10 and the proximity switch 11 are respectively installed on the same side as the opening of the first sleeve 6 and on the side away from the opening of the first sleeve 6 .

The two photoelectric switches 7 are arranged on both sides of the pushing slider 2 .

The four corners of the lower surface of the magnetic tile bottom plate 12 are respectively equipped with uprights 9 .

An operation method of a small tile-shaped material supply device, comprising the following steps:

S1. The first magnetic tile 16 enters from the opening of the first sleeve 6, falls into the cavity of the second sleeve 5 by its own gravity, and the first magnetic tile 16 presses against the opening of the first sleeve 6 for a while. The induction block 10 on the side, the rotation of the induction block 10 is sensed by the proximity switch 11 on the side of the opening;

S2. The second magnetic tile 16 enters from the opening of the first sleeve 6 and falls onto the first magnetic tile 16 in the second sleeve 5 by its own gravity. The photoelectric switch 7 senses the second magnetic tile 16. At this time, the rotating cylinder 4 responds, driving the paddle 17 and the material distribution shaft 18 to rotate 180 degrees, and the paddle 17 drives the second magnetic tile 16 to rotate 180 degrees. into the cavity on the other side of the second sleeve 5;

S3. The second magnetic tile 16 presses the induction block 10 on the other side by its own gravity, and the rotation of the induction block 10 is sensed by the proximity switch 11 on the same side; the third magnetic tile 16 passes through the opening of the first sleeve 6 Enter, fall on the first magnetic tile 16 in the second sleeve 5 by its own gravity, the photoelectric switch 7 on the side of the opening of the first sleeve 6 senses the third magnetic tile 16, and at this time rotate Cylinder 4 responds, driving pick 17 and material distribution shaft 18 to rotate 180 degrees, pick 17 drives the third magnetic tile 16 to rotate 180 degrees and fall into the cavity on the other side of the second sleeve 5;

S4. The third magnetic tile 16 falls onto the second magnetic tile 16 in the second sleeve 5 by its own gravity, and the photoelectric switch 7 on the other side of the first sleeve 6 senses the third magnetic tile 16. At this time Two photoelectric switches 7 and two proximity switches 11 have inductions, and then the telescopic cylinder 13 is stretched out, and the first magnetic tile 16 and the second magnetic tile 16 are pushed out of the second sleeve 5, and the first magnetic tile 16 is pushed out. The tile 16 and the second magnetic tile 16 are transported to the next station; the second guide block 8 and the first guide block 19 guide the pushed out first magnetic tile 16 and the second magnetic tile 16 .

The above-mentioned embodiments only express the implementation manner of the present utility model, and its description is relatively specific and detailed, but it should not be interpreted as limiting the patent scope of the present utility model. It should be noted that those skilled in the art can make several modifications and improvements without departing from the concept of the utility model, and these all belong to the protection scope of the utility model. Therefore, the scope of protection of the utility model patent should be based on the appended claims.

Claims (7)

1. a kind of small-sized tiles material delivery system, it is characterised in that：Including magnetic shoe bottom plate (12), the magnetic shoe bottom plate (12) Upper surface is equipped with pusher sliding block (2), and the pusher sliding block (2) passes through second sleeve (5), the second sleeve (5) with it is described Magnetic shoe bottom plate (12) mutually from surface, be sequentially installed with the first sleeve (6), swivel plate (3) and rotary cylinder (4) from the near to the distant； The first guide pad (19) and buffering catch (21) are equipped in the second sleeve (5), first guide pad (19) is mounted on institute It states on buffering catch (21), the sub-material axis (18) that can be rotated, the sub-material axis is installed on first guide pad (19) (18) plectrum (17) is installed, the plectrum (17) can rotate with the sub-material axis (18) in the middle part of；The rotary cylinder (4) Axis be fixedly connected with the sub-material axis (18), the rotary cylinder (4) can drive the sub-material axis (18) to rotate；

First sleeve (6) and the second sleeve (5) mutually from one end be equipped with opening；

It is also equipped with detection seat (20) on the magnetic shoe bottom plate (12) and close to (11) are switched, is equipped on the detection seat (20) Two sensor blocks (10) that can be rotated, there are two the side adjacent with the pusher sliding block (2) is set on the second sleeve (5) Optoelectronic switch (7).

2. a kind of small-sized tiles material delivery system according to claim 1, it is characterised in that：The detection seat (20) The lower surface of the magnetic shoe bottom plate (12) is mounted on the close switch (11), and corresponding with the second sleeve (5).

3. a kind of small-sized tiles material delivery system according to claim 1, it is characterised in that：The pusher sliding block (2) one end is equipped with limited block (1), and pusher sliding block (2) other end is equipped with the second guide pad (8), second guide pad (8) there are two pieces, be separately positioned on the both sides of the pusher sliding block (2), and be connected with the second sleeve (5).

4. a kind of small-sized tiles material delivery system according to claim 3, it is characterised in that：The pusher sliding block (2) magnetic shoe cylinder block (14), the magnetic shoe cylinder block (14) and the limit are installed with the adjacent one end of the limited block (1) Position block (1) mutually from side telescopic cylinder (13) is installed, the telescopic cylinder (13) passes through M5 vigor connector (15) and institute Pusher sliding block (2) is stated to be connected；Under the drive of the telescopic cylinder (13), the pusher sliding block (2) is along described second set The direction of cylinder (5) moves back and forth.

5. a kind of small-sized tiles material delivery system according to claim 2, it is characterised in that：The sensor block (10) With it is described close to switch (11) there are two, be separately mounted to it is described detection seat (20) both sides.

6. a kind of small-sized tiles material delivery system according to claim 1, it is characterised in that：Two photoelectricity are opened (7) are closed to be arranged in the both sides of the pusher sliding block (2).

7. a kind of small-sized tiles material delivery system according to claim 1, it is characterised in that：The magnetic shoe bottom plate (12) quadrangle of lower surface is separately installed with column (9).