KR102652728B1 - Apparatus for conveying poultry with improved action durability - Google Patents

Abstract

A poultry transport device configured to improve operational durability according to the present invention includes an input unit for inserting a cage containing poultry, a linear moving unit for linearly moving the cage disposed on the input unit, and the movement of the cage. It includes a direction change part for changing the direction, a right angle rotation part for rotating the cage and moving it in a right angle direction, and the input part, the linear movement part, and the direction change part include a plurality of rollers for supporting and moving the cage. It includes a member, wherein the roller member includes a roller shaft, a support roller coupled to both sides of the roller shaft, a sprocket portion coupled to an end of the roller shaft, and a chain portion coupled to the sprocket portion, and the support roller It includes a contact support part for supporting while contacting the bottom of the cage and a separation prevention part integrally formed on an outer end of the contact support part, and the sprocket part is composed of a double sprocket part including an inner sprocket part and an outer sprocket part. , Adjacent roller members are configured to be interlocked by a chain coupled to the inner sprocket portion and a chain coupled to the outer sprocket portion, and a foreign matter adhesion prevention member is disposed on the sprocket portion.
According to the present invention, poultry such as chicken can be transported reliably, and production costs can be significantly reduced compared to the case of transport by man, and even in the case of long-term operation, foreign substances such as chicken feathers can be caught and the device can be damaged. By preventing breakdowns, the homeostasis of production can be improved.
In addition, it is easy to change the transfer direction depending on the on-site conditions of the slaughterhouse, so it can be easily changed and installed depending on the equipment or work space, and it can withstand high loads, allowing a large number of chickens to be transferred at the same time.

Description

Poultry conveying device configured to improve operational durability {APPARATUS FOR CONVEYING POULTRY WITH IMPROVED ACTION DURABILITY}

The present invention relates to a poultry transport device. More specifically, the present invention relates to a poultry transport device, and more specifically, to transport poultry reliably, prevent foreign substances from getting caught and damage or malfunction of the device even in the case of long-term operation, and facilitate changing the transport direction according to field conditions. The invention relates to a poultry transport device configured to improve operational durability.

Poultry, including chicken and duck, has a high protein content per unit weight, low fat content, and contains various vitamins and minerals, so it has been widely used as a health food since ancient times.

In particular, chicken is traditionally used in a wide range of dishes not only domestically but also around the world because its meat is soft, its taste and flavor are light, and it is easy to cook.

To ensure smooth supply of chicken, mass rearing is carried out in poultry farms.

In order to use raised chickens for cooking, chicken preparation is required at the slaughterhouse, and tasks such as removing chicken fur and washing are typically performed inside the slaughterhouse.

However, conventionally, the work of transporting chickens to various work processes within a slaughterhouse was mainly performed by human labor.

However, as the demand for chicken has recently increased to the extent of consuming about 15 chickens per person per year, transporting chickens within the slaughterhouse by manpower has limitations and is a factor in increasing production costs.

Therefore, there is a need to develop a transport device that moves chickens reliably and does not cause damage or malfunction even during long-term operation.
Prior art regarding devices for transporting poultry includes Republic of Korea Patent Publication No. 10-2011-0060086 (title of the invention: chicken transport module and device for separating chickens transported from the production site through the same).

An object of the present invention is to provide a poultry transport device configured to reliably transport poultry, such as chickens, and with improved operational durability.

Another object of the present invention is to provide a poultry transport device configured to improve operational durability and to prevent entrapment of chicken feathers or foreign substances and damage and failure of the device even in the case of long-term operation.

Another object of the present invention is to provide a poultry transport device configured to improve operational durability and to facilitate changing the transport direction depending on the field conditions of the slaughterhouse.

Another object of the present invention is to provide a poultry transport device configured to have improved operational durability that can withstand high loads.

A poultry transport device configured to improve operational durability according to the present invention to achieve the above object includes an input unit for inserting a cage containing poultry, and a linear movement unit for linearly moving the cage disposed on the input unit. and a direction change part for changing the moving direction of the cage, and a right angle rotation part for rotating the cage and moving it in a right angle direction, wherein the input part, the linear movement part, and the direction change part support the cage. It includes a plurality of roller members for movement, wherein the roller members include a roller shaft and support rollers coupled to both sides of the roller shaft, a sprocket portion is formed at an end of the roller shaft, and a chain is coupled to the sprocket portion. The support roller includes a contact support part for supporting while contacting the bottom of the cage, and a separation prevention part integrally formed at an outer end of the contact support part, and the sprocket part includes an inner sprocket part and an outer sprocket part. It is composed of a double sprocket portion, and adjacent roller members are configured to rotate in conjunction with a chain coupled to the inner sprocket portion and a chain coupled to the outer sprocket portion, and a foreign matter adhesion prevention member is provided on the sprocket portion. It is characterized by being placed.

Preferably, a detection sensor for detecting the presence or absence of the cage is installed in the input part and the linear moving part, and a motor member is coupled to the chain, and the presence or absence of the cage is detected by the detection sensor, so that the motor member is configured to rotate the chain.

Here, the motor member may be disposed below the roller member.

In addition, the detection sensor includes an interference part configured to rotate about the rotation axis by interference between the rotation axis and the cage. A coating film is formed on a surface of the interference part that contacts the cage, and an upper end of the interference part is formed in the interference part. It can be formed by bending to the same radius of curvature as the roller shaft.

Additionally, the direction change section support roller of the direction change section roller member included in the direction change section may be formed in a truncated cone shape.

Also, among the direction change site support rollers, the direction change site support roller disposed outside the rotation center may be formed to have a larger diameter than the direction change site support roller disposed inside.

Additionally, the direction change site support roller disposed on the inside may have a greater width than the direction change site support roller disposed on the outside.

Preferably, a plurality of concave portions are formed on the surface of the direction change support roller along the circumferential direction.

Additionally, the roller shaft included in the direction changing roller member may be arranged to be inclined low and outward from the center of rotation.

Meanwhile, the orthogonal rotation unit includes a base member formed in a circular plate shape, a plurality of roller members disposed on the base member, and a rotation drive disposed below the base member to rotate the base member by 90 degrees. May include absences.

Here, guide rollers may be installed in front and behind the roller members on the base member.

Additionally, a plurality of concave portions along the circumferential direction may be formed on the surface of the guide roller.

Additionally, a plurality of concave portions along the axial direction may be formed on the surface of the guide roller.

Preferably, a stopper member for controlling the rotational position of the base member and a buffer member for cushioning impact are disposed below the base member.

Here, the rotation drive member includes a cylinder, and a rear end of the cylinder may be fixed to allow rotation.

Additionally, a rotating support roller may be disposed on the bottom of the base member.

Additionally, the contact support portion is formed in a cylindrical shape, and a plurality of concave portions along the circumferential direction may be formed on its surface.

Additionally, a plurality of concave portions along the axial direction may be formed on the surface of the contact support portion.

Meanwhile, a guiding member for guiding the cage to the roller member of the input unit and a separation prevention member disposed to face the guiding member to prevent the cage from being separated from the roller member may be installed in the input unit.

Here, the guiding member includes an inclined surface formed to be inclined toward the roller member, and a plurality of concave portions facing the roller member may be formed on the inclined surface.

Meanwhile, the foreign matter adhesion prevention member may include a sprocket receiving portion for receiving the sprocket portion and a shaft passing portion for passing the shaft of the sprocket portion.

Here, a step is formed between the sprocket receiving portion and the shaft passing portion, and the height of the shaft passing portion may be formed to be smaller than the height of the sprocket receiving portion.

According to the present invention, poultry such as chickens can be transported reliably, and production costs can be significantly reduced compared to the case of transport by manpower.

In addition, even in the case of long-term operation, the homeostasis of production can be improved by preventing foreign substances such as chicken feathers from getting caught and damage or malfunction of the device.

In addition, since it is easy to change the transfer direction depending on the on-site conditions of the slaughterhouse, the transfer route can be easily changed depending on the equipment or work space.

Additionally, it can withstand high loads, allowing a large number of chickens to be transported at the same time.

The attached drawings are intended to help you understand the technical idea of the present invention along with the detailed description of the invention, and therefore the present invention should not be construed as limited to the matters shown in the drawings.
1 is a plan view of the overall configuration of a poultry transport device configured to improve operational durability according to the present invention;
Figure 2 is a plan view of the roller member included in the transfer device;
Figure 3 is a side view of the roller member;
Figure 4 is a cross-sectional view of the roller member disposed at the input portion of the transfer device;
Figure 5 is a side view of the portion where the sensor member is disposed in the roller member;
Figure 6 is a plan view of the direction change part included in the transfer device;
Figure 7 is a cross-sectional view of the roller member included in the direction changing part;
Figure 8 is a plan view of a roller member included in the direction changing part according to another embodiment of the present invention;
Figure 9 is a plan view of the right angle rotation part included in the transfer device;
Figure 10 is a plan view of the lower part of the base member in the right angle rotation part,
Figure 11 is a side view of the right angle rotation part,
Figure 12 is another side view of the right angle rotation part,
Figure 13 is a front view of a guide roller included in the right angle rotation part according to another embodiment of the present invention;
Figure 14 is a perspective view of a support roller according to another embodiment of the present invention;
Figure 15 is a perspective view of a guiding member and a departure prevention member according to another embodiment of the present invention;
Figure 16 is a front view of the cage transported by the transport device;
Figure 17 is a front view of the foreign matter adhesion prevention member included in the transfer device;
Figure 18 is a perspective view of the foreign matter adhesion prevention member.

Hereinafter, the configuration of the present invention will be described in detail with reference to the attached drawings.

Prior to this, the terms used in this specification and claims should not be construed limited to their dictionary meaning, and based on the principle that the inventor can appropriately define the concept of the term in order to explain his or her invention in the best way, , should be interpreted with meaning and concept consistent with the technical idea of the present invention.

Accordingly, the embodiments described in this specification and the configurations shown in the drawings are only preferred embodiments of the present invention and do not express the entire technical idea of the present invention, so various equivalents that can replace them at the time of filing the present application It should be understood that variations and variations may exist.

Figure 1 is a plan view of the overall configuration of a poultry transport device configured to improve operational durability according to the present invention, Figure 2 is a plan view of a roller member included in the transport device, Figure 3 is a side view of the roller member, and Figure 4 is a cross-sectional view of the roller member disposed at the input portion of the transfer device, Figure 5 is a side view of the portion of the roller member where the sensor member is disposed, and Figure 6 is a plan view of the direction change portion included in the transfer device. FIG. 7 is a cross-sectional view of the roller member included in the direction changing unit, FIG. 8 is a plan view of the roller member included in the direction changing unit according to another embodiment of the present invention, and FIG. 9 is a sectional view of the roller member included in the transfer device. It is a top view of the right angle rotation part, Figure 10 is a top view of the lower part of the base member in the right angle rotation part, Figure 11 is a side view of the right angle rotation part, Figure 12 is another side view of the right angle rotation part, and Figure 13 is the main view. It is a front view of the guide roller included in the orthogonal rotation part according to another embodiment of the present invention, Figure 14 is a perspective view of the support roller according to another embodiment of the present invention, and Figure 15 is a view of another embodiment of the present invention. It is a perspective view of the guiding member and the separation prevention member, Figure 16 is a front view of the cage transported by the transfer device, Figure 17 is a front view of the foreign matter adhesion prevention member included in the transfer device, and Figure 18 is the foreign matter attachment prevention member. This is a perspective view of the prevention member.

Referring to Figures 1 to 3, the poultry transport device configured to improve operational durability according to the present invention includes an input unit 10 for inserting a cage 100 containing poultry, and is disposed on the input unit 10. A linear moving part 20 for moving the cage 100 in a straight line, a direction changing part 30 for changing the moving direction of the cage 100, and a right-angled direction by rotating the cage 100. It includes a right-angled rotating part 50 for moving, and the input part 10, the linear moving part 20, and the direction changing part 30 include a plurality of roller members for supporting and moving the cage 100 ( 60), wherein the roller member 60 includes a roller shaft 62 and a support roller 64 coupled to both sides of the roller shaft 62, and at the end of the roller shaft 62. A sprocket portion 66 is formed, a chain 68 is coupled to the sprocket portion 66, and the support roller 64 includes a contact support portion 642 for supporting while contacting the bottom surface of the cage 100. , It includes a separation prevention part 644 integrally formed at the outer end of the contact support part 642, and the sprocket part 66 includes an inner sprocket part 66-1 and an outer sprocket part 66-2. ) and a chain (68-1) consisting of a double sprocket portion (66-1, 66-2), where adjacent roller members (60) are coupled to the inner sprocket portion (66-1). It is configured to rotate in conjunction with a chain (68-2) coupled to the outer sprocket portion (66-2), and a foreign matter adhesion prevention member (662) is disposed on the sprocket portion (66).

The cage 100 is made of metal and is formed into a hexahedral shape, as shown in FIG. 16.

Inside the cage 100, a plurality of flat, hexahedral-shaped synthetic resin containers 110 are stored in the height direction.

Then, with the chickens accommodated in the container 110, the container 110 is stored inside the cage 100.

The cage 100 in which the container 110 containing the chickens is housed is first introduced into the input unit 10.

As shown in FIG. 4, a guiding member 12 is disposed at the input unit 10 to guide the cage 100 to the roller member 60 disposed at the input unit 10.

An inclined surface 122 is formed on the side of the guiding member 12 facing the roller member 60, so that the cage 100 introduced into the input unit 10 slides along the inclined surface 122 and is connected to the roller member. It is configured to be derived as (60).

And, on the opposite side facing the guiding member 12, a separation prevention member 14 may be installed to prevent the cage 100 placed on the roller member 60 from falling over or coming off.

The separation prevention member 14 also has an inclined surface 142 formed on the side facing the roller member 60, and when the cage 100 is placed on the separation prevention member 14, the roller member 60 ) is configured so that it can be derived.

Then, the cage 100 inserted into the input unit 10 is moved in a straight line through the linear moving unit 20.

In addition, the cage 100, which is moved in a straight direction through the linear moving part 20, changes its direction through the direction changing part 30.

The direction change unit 30 is preferably configured to change the moving direction of the cage 100 by 180 degrees.

The cage 100 transported by the linear moving unit 20 and the direction changing unit 30 can be moved in a direction perpendicular to the direction of travel by the orthogonal rotation unit 50.

Therefore, by combining the linear moving part 20, the direction changing part 30, and the right angle rotating part 50, the cage 100 can be moved to a desired position along a desired transfer path.

The input unit 10, the linear moving unit 20, and the direction changing unit 30 include a plurality of roller members 60 for supporting and moving the cage 100.

As shown in Figures 2 to 4, the roller member 60 includes a roller shaft 62 and support rollers 64 coupled to both sides of the roller shaft 62.

The roller shaft 62 may be formed as a cylindrical metal pipe.

In addition, the support roller 64 includes a contact support portion 642 for supporting while contacting the bottom surface of the cage 100, and a separation prevention portion 644 integrally formed on the outer end of the contact support portion 642. Includes.

The contact support portion 642 is formed in a substantially cylindrical shape and supports it in contact with the bottom of the cage 100 as shown in FIG. 4 .

In addition, the separation prevention part 644 has a disk shape having a larger diameter than the contact support part 642, and is formed integrally with the end of the contact support part 642.

Therefore, as shown in FIG. 4, the separation prevention portion 644 is located on the outside of the bottom of the cage 100 to function as a jaw to prevent the cage 100 from being separated from the support roller 64. It is composed.

As shown in Figures 2 and 4, a sprocket portion 66 is formed at the end of the roller shaft 62, and a chain 68 is coupled to the sprocket portion 66.

In the transfer device according to the present invention, the sprocket portion 66 includes an inner sprocket portion 66-1 and an outer sprocket portion 66-2, and is comprised of a double sprocket portion 66-1 and 66-2. It consists of

And, the adjacent roller members 60 include a chain 68-1 coupled to the inner sprocket portion 66-1 and a chain 68-2 coupled to the outer sprocket portion 66-2. ) is configured to be interlocked and rotated.

In this state, as shown in FIGS. 3 and 5, a chain 69 is connected between the sprocket portion 66 and the sprocket 82 of the motor member 80 to transmit rotational force from the motor member 80. It is configured to do so.

With this configuration, rotational force from the motor member 80 can be transmitted to the roller members 60.

In addition, in a state where the sprocket portion 66 is configured as a double as described above, the adjacent roller members 60 are configured to rotate in conjunction with each other by the double chains 68-1 and 68-2, thereby providing a large The cage 100 can be moved reliably even when a load is applied.

At this time, as shown in FIG. 4, a foreign matter adhesion prevention member 662 is disposed at the portion where the sprocket part 66 and the chain part 68 are disposed to prevent foreign matter such as dust from attaching to the sprocket part. It is configured to surround (66) and the chain portion (68).

The foreign matter adhesion prevention member 662 shown in FIGS. 17 and 18 includes a sprocket receiving portion 6622 for accommodating the sprocket portion 66 and a shaft passage for passing the shaft 661 of the sprocket portion 66. It may include part 6624.

Here, steps 6623 and 6627 are formed between the sprocket receiving portion 6622 and the shaft passing portion 6624, and the height H2 of the shaft passing portion 6624 is equal to the height of the sprocket receiving portion 6622. It is formed smaller than (H1).

In addition, a stopper 6626 is formed on the front portion of the sprocket receiving portion 6622 to prevent foreign substances such as chicken hair or dust from entering the sprocket portion 66.

Also, the upper part of the shaft passing part 6624 is formed at a lower height than the separation prevention part 644 of the support roller 64.

Therefore, poultry feathers accommodated in the cage 100 flow into the sprocket portion 66 through the shaft passage portion 6624, which is formed at a smaller height than the sprocket receiving portion 6622. It is designed to prevent

Therefore, even in the case of long-term operation, it is configured to prevent foreign substances such as chicken hair or dust from becoming caught in the sprocket portion 66 and the chain portion 68.

3 to 5, the motor member 80 is disposed below the roller member 60, and the sprocket 82 of the motor member 80 is positioned at the lower part of the roller member 60. It is configured to be connected through the sprocket part 66 and the chain 69.

Additionally, a detection sensor 70 is installed in the input unit 10 and the linear moving unit 20 to detect the presence or absence of the cage 100.

The detection sensor 70 includes a rotation axis 72 and an interference unit 74 configured to rotate around the rotation axis 72 by interference with the cage 100.

The interference part 74 is made of a metal material such as a steel plate and is formed in a substantially long rectangular shape, and the upper end 742 of the interference part 74 is bent to the same radius of curvature as the roller shaft 62.

In addition, a coating film is formed on the surface of the interference part 74 that contacts the cage 100, so that the cage 100 slides smoothly on the surface of the interference part 74.

The coating film may be composed of a coating film using a Teflon-based resin, and as described above, the cage 100 is configured to slide smoothly on the surface of the interference part 74, so that the interference part 74 can be maintained even during long-term operation. This can prevent parts from being damaged.

And, when the cage 100 collides with and interferes with the interference part 74, the interference part 74 rotates around the rotation axis 72, so that the upper part 742 becomes the roller axis 62. It is constructed so that it can be completely adhered to.

Therefore, even in the case of long-term operation, the detection sensor 70 can be prevented from being deformed or damaged by hitting the cage 100.

In this state, the detection sensor 70 can reliably detect the passage of the cage 100 by detecting whether it is rotated by hitting the cage 100.

In the slaughterhouse, it is desirable to maintain a dark environment as much as possible in order to reduce the stress of chickens transported and housed inside the cage 100.

In this situation, since many people are actively moving around for work inside the slaughterhouse, installing optical sensors near the roller member 60 is not desirable in terms of detection accuracy and stress on chickens.

However, with the detection sensor 70 configured as described above, by mechanically detecting whether the cage 100 is moving, it is possible to reliably detect whether the cage 100 is moving while preventing stress on the chickens.

Meanwhile, as shown in FIG. 6, a plurality of direction change part roller members 90 are disposed in the direction change part for changing the moving direction of the cage 100.

The direction change section roller member 90 includes a roller shaft 92 and a pair of direction change section support rollers 94-1 and 94-2 disposed on both sides of the roller shaft 92.

Here, the direction change support rollers 94-1 and 94-2 are all formed in a truncated cone shape and are arranged to be spaced apart from each other.

Therefore, compared to the case where the direction change site support roller is formed in the shape of a single large truncated cone, energy for rotating the direction change site support roller is reduced, manufacturing of the direction change site support roller becomes easier, and manufacturing cost is reduced. This is reduced.

In addition, among the direction change site support rollers 94-1 and 94-2, the direction change site support roller 94-2 disposed outside the rotation center is a direction change site support roller 94-2 disposed inside the rotation center. It may be formed to have a larger diameter than the roller 94-1.

In addition, the width W1 of the direction change site support roller 94-1 disposed inside the center of rotation is greater than the width W2 of the direction change site support roller 94-2 disposed outside the center of rotation. It can be formed in width.

Thus, the contact area between the direction change site support roller 94-1 disposed inside and the bottom of the cage 100 can be increased.

In this state, as shown in FIG. 7, the roller shaft 92 included in the direction changing roller member 90 may be arranged to tilt low toward the outside from the rotation center (right side in FIG. 7).

Thus, the surfaces of the direction change support rollers 94-1 and 94-2 disposed on both sides of the roller shaft 92 are horizontal to prevent the cage 100 from moving up and down during rotation. You can.

Therefore, the portion located inside the rotation center on the bottom of the cage 100 is supported by the inner direction change support roller 94-1 formed with a larger width, so that the cage 100 is stable. can be rotated.

This is because, when the cage 100 is rotated by the direction change unit 30, the speed gradually increases as the distance from the rotation center increases, and the bottom portion of the cage 100 closest to the rotation center has a larger width. This is because stability can be increased by being supported by the inner direction change support roller 94-1.

Therefore, when the cage 100 is rotated by the direction change unit 30, it is possible to prevent the cage 100 from falling.

In another embodiment of the present invention shown in FIG. 8, a plurality of concave portions 946 along the circumferential direction are formed on the surfaces of the direction change support rollers 94-1 and 94-2.

Therefore, the corner portions in the cross section of the concave portions 946 apply frictional force to the bottom surface of the cage 100, thereby causing the cage 100 to be moved from the surface of the direction change support rollers 94-1 and 94-2. ) can prevent slipping.

Therefore, the cage 100 can be rotated more stably through the direction change unit 30.

The direction change unit 30 may be configured to rotate the moving direction of the cage 100 by 180 degrees, as shown in FIG. 1, or may be configured to rotate the moving direction of the cage 100 by 90 degrees, as shown in FIG. 6.

Meanwhile, the orthogonal rotating part 50 shown in FIGS. 9 to 12 includes a base member 52 formed in a circular plate shape, a plurality of roller members 54 disposed on the base member 52, and It includes a rotation driving member 56 disposed below the base member 52 to rotate the base member 52 by 90 degrees.

The base member 52 is made of metal and is formed in the shape of a circular plate. The roller members 54 are disposed on the upper part of the base member 52, and the rotation driving member 56 is a part of the base member 52. It is placed at the bottom.

The rotation drive member 56 includes a cylinder, the front end of the cylinder is coupled to the bottom of the base member 52, and the rear end of the cylinder body 562 is rotatable through the rotation shaft 564. It is fixed.

Therefore, as shown in FIG. 10, as the cylinder is extended, the base member 52 is rotated 90 degrees about the axis 51 installed at the lower part of the base member 52, and the cylinder is contracted to return to its original position. By returning to its original state, the base member 52 is also returned to its original position.

In order to smoothly rotate the base member 52 as described above, a rotation support roller 522 is disposed at the lower part of the base member 52 to support the base member 52.

Additionally, guide rollers 58 may be installed in front and rear of the roller members 54 on the base member 52.

The guide roller 58 guides the cage 100 to the roller members 54 disposed on the base member 52 and discharges the cage 100 from the roller members 54. , installed at the front and rear of the roller member 54.

As shown in FIG. 13, a plurality of concave portions along the circumferential direction and a plurality of concave portions 583 along the axial direction may be formed on the surface of the guide roller 58.

Therefore, by causing the corner portions of the cross sections of the concave portions 583 to exert frictional force on the bottom surface of the cage 100, the cage 100 can be reliably transferred to the roller member 54 without slipping.

In addition, a stopper member 532 for controlling the rotational position of the base member 52 and a buffer member 534 for cushioning the impact are disposed below the base member 52.

Thus, through the stopper member 532, the rotation angle of the base member 52 can be accurately limited to 90 degrees, and the shock that may be applied when stopped after rotation is cushioned through the buffer member 534. do.

By constructing the orthogonal rotation unit 50 as described above, the cage is first moved from the right side of FIG. 9 onto the roller member 54, and then in a state in which the base member 52 is rotated 90 degrees, in FIG. 9 moves upward.

Thus, the moving direction of the cage 100 can be changed to a right angle direction.

Meanwhile, in another embodiment of the present invention shown in FIG. 14, the contact support portion 642 is formed in a cylindrical shape, and its surface has a plurality of concave portions along the circumferential direction and a plurality of concave portions along the axial direction. (643) can be formed.

Therefore, when the contact support portion 642 is in contact with the bottom of the cage 100, the corner portions of the cross sections of the concave portions 643 apply frictional force to the bottom of the cage 100, thereby causing the cage 100 to It can be configured to prevent slipping.

Thus, movement of the cage 100 can be prevented and the cage 100 can be transported reliably.

In addition, as shown in FIG. 15, a plurality of concave portions 124 facing the roller member 60 may be formed on the inclined surface 122 included in the guiding member 12.

Therefore, when the cage 100 slides on the inclined surface 122 and is guided to the roller member 60, the corner portions of the cross sections of the concave portions 124 apply frictional force to the bottom surface of the cage 100. By doing so, it is possible to prevent the cage 100 from being separated from the guiding member 12.

Above, the terms used in the embodiments of the present invention have the same meaning as generally understood by those skilled in the art to which the present invention pertains.

Although the present invention has been described by means of limited embodiments and drawings, the embodiments are not intended to limit the technical idea of the present invention, but rather to explain it, so the technical idea of the present invention is not limited to these, and the present invention belongs to A person skilled in the art will be able to make various modifications and variations within the scope of equivalency of the technical spirit of the present invention and the scope of the claims below.

Therefore, the scope of protection of the present invention should be interpreted in accordance with the scope of the patent claims, and all technical ideas within the equivalent scope should be interpreted as being included in the scope of rights of the present invention.

And, if it is within the scope of the purpose of the present invention, all of the components may be configured by selectively combining one or more of them.

The above-mentioned terms “included” or “consisted of” should be interpreted to mean that the corresponding component may be included, and that other components may be additionally included.

10: Input part
20: Straight moving part
30: Direction change unit
50: Right angle rotation part
60: Roller member
70: Detection sensor
80: Motor member
90: Direction change roller member
100: Cage

Claims (22)

an input unit for inserting a cage containing poultry;
a linear moving unit for linearly moving the cage disposed on the input unit;
a direction change unit for changing the moving direction of the cage;
It includes a right-angle rotation part for rotating the cage and moving it in a right-angle direction,
The input unit, the linear moving unit, and the direction changing unit include a plurality of roller members for supporting and moving the cage,
The roller member includes a roller shaft and support rollers coupled to both sides of the roller shaft,
A sprocket portion is formed at the end of the roller shaft, and a chain is coupled to the sprocket portion,
The support roller includes a contact support part for supporting while contacting the bottom of the cage, and a separation prevention part integrally formed on an outer end of the contact support part,
The sprocket part is composed of a double sprocket part including an inner sprocket part and an outer sprocket part, and adjacent roller members rotate by interlocking with a chain coupled to the inner sprocket part and a chain coupled to the outer sprocket part. It is structured so that
A foreign matter adhesion prevention member is disposed on the sprocket portion,
A detection sensor is installed in the input part and the linear moving part to detect the presence or absence of the cage,
A motor member is coupled to the chain, and the motor member rotates the chain by detecting the presence or absence of a cage using the detection sensor,
The detection sensor includes an interference unit configured to rotate about the rotation axis by interference between the rotation axis and the cage,
The interference part is made of a metal material such as a steel plate and is formed in a long rectangular shape. The upper end of the interference part is bent to the same radius of curvature as the roller shaft, so that when the cage collides with the interference part and interferes with the interference part, the interference part is formed in a long rectangular shape. It is configured to rotate around the rotation axis so that the upper portion can be in close contact with the roller shaft,
The motor member is disposed below the roller member,
A plurality of direction change roller members are disposed in the direction change section,
The direction change section roller member includes a roller shaft and a pair of direction change section support rollers disposed on both sides of the roller shaft,
The pair of direction change support rollers are spaced apart from each other in a truncated cone shape,
Among the direction change site support rollers, the direction change site support roller disposed outside the rotation center is formed with a larger diameter than the direction change site support roller disposed inside,
The width of the direction change site support roller disposed on the inside is larger than that of the direction change site support roller disposed on the outside,
The roller shaft included in the direction changing roller member is arranged to be inclined low and outward from the rotation center,
A plurality of concave portions are formed along the circumferential direction on the surface of the direction change support roller,
The right angle rotation portion includes a base member formed in a circular plate shape,
A plurality of roller members disposed on the base member,
It includes a rotation drive member disposed below the base member to rotate the base member by 90 degrees,
Guide rollers are installed in front and behind the roller members on the base member,
A stopper member to control the rotational position of the base member and a buffer member to cushion the impact are disposed at the lower part of the base member,
The rotation drive member includes a cylinder, and a rear end of the cylinder is fixed to allow rotation,
A rotating support roller is disposed on the bottom of the base member,
The input unit is provided with a guiding member for guiding the cage to the roller member of the input unit, and a separation prevention member disposed to face the guiding member to prevent the cage from being separated from the roller member,
The guiding member includes an inclined surface inclined toward the roller member, and a plurality of concave portions are formed on the inclined surface toward the roller member,
The foreign matter adhesion prevention member includes a sprocket receiving portion for receiving the sprocket portion and a shaft passing portion for passing the shaft of the sprocket portion,
A poultry transport device configured to improve operational durability, wherein a step is formed between the sprocket receiving portion and the shaft passing portion, and the height of the shaft passing portion is formed to be smaller than the height of the sprocket receiving portion. According to claim 1,
A poultry transport device configured to improve operational durability, characterized in that a plurality of concave portions along a circumferential direction are formed on the surface of the guide roller. According to claim 2,
A poultry transport device configured to improve operational durability, characterized in that a plurality of concave portions along the axial direction are formed on the surface of the guide roller. According to claim 1,
A poultry transport device configured to improve operational durability, wherein the contact support portion is formed in a cylindrical shape, and a plurality of concave portions along a circumferential direction are formed on its surface. According to claim 4,
A poultry transport device configured to improve operational durability, wherein a plurality of concave portions along an axial direction are formed on the surface of the contact support portion. delete delete delete delete delete delete delete delete delete delete delete delete delete delete delete delete delete

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