TWI849387B - Embryo transport system and its guided patch - Google Patents

Abstract

The present invention discloses a blank conveying system and a guide paddle thereof. The guide paddle has an axial hole, which is penetrated by the shaft of the guide device, and the circumference of the axial hole is straight, and the circumference of the end portion of the guide paddle is arc-shaped. Thus, after the guide paddle is penetrated by the shaft, it rotates with the shaft, and the arc-shaped circumferences at both ends of the guide paddle will push the blank to be processed when it contacts the blank to be processed, so that it tilts forward and is stacked upright in a specific area, so as to facilitate subsequent processing.

Description

Embryo transport system and its guided patch

The present invention relates to a conveying system; in particular, to a blank conveying system and its guide flap that rotates so that the end of the guide flap pushes against the blanks to be processed passing by, so that the blanks are tilted forward and stacked upright in a stacking area.

Technology is changing with each passing day, and various types of manufacturing equipment are constantly being updated and developed towards mechanical automation to save labor and improve production efficiency. However, the existing conveying device is used to transport the objects to be processed to the corresponding processing equipment for processing. When the objects to be processed are assembled for stacking and bagging, a certain number of objects to be processed are picked out and arranged by manpower before bagging, which is very time-consuming and increases labor costs.

In order to solve the above technical problems, the present invention provides an embryo transport system and a guide flap thereof. Through the improvement of the present invention, the above defects existing in the prior art can be effectively overcome.

The present invention proposes a guide paddle, which has an axial hole, the axial hole is penetrated by the shaft of the guide device, and the circumference of the axial hole part is straight, and the circumference of the end part of the guide paddle is arc-shaped.

The present invention further proposes an embryo transport system, which comprises: a first transport slope, which is installed on the system base, and a plurality of embryos to be processed slide along the first transport slope; a transport device, which is installed on the system base corresponding to the first transport slope, and the transport device has a conveyor belt, and the conveyor belt transports the plurality of embryos to be processed that slide along the first transport slope; a second transport slope, which is installed on the system base corresponding to one end of the transport device opposite to the first transport slope; a stacking area, which is installed on the system base corresponding to one end of the second transport slope opposite to the transport device, and the embryo transport system has a plurality of embryo guide grooves, each of which is sequentially connected by the first transport slope, the transport slope, and the stacking area. The conveying device and the second conveying slope extend to the stacking area; the guiding device includes a plurality of the aforementioned guide flaps, which are rotatably arranged on the system base corresponding to the lower side of the second conveying slope, the guiding device includes an axis, and the second conveying slope is respectively provided with a plurality of slots on the bottom surface of each guiding embryo groove, each guide flap is arranged corresponding to each slot and is sleeved on the axis, the axis drives the plurality of guide flaps to rotate, and the two ends of each guide flap pass through the slots during rotation and push against the plurality of embryos to be processed passing through the second conveying slope, and after being pushed, the plurality of embryos to be processed are tilted forward along each guiding embryo groove toward the stacking area and are stacked upright in the stacking area.

Preferably, the embryo transport system may further include a vibration platform, which is mounted on the system base corresponding to one end of the first transport slope relative to the transport device, and a plurality of embryos to be processed are vibrated and displaced to the first transport slope by the vibration of the vibration platform.

Preferably, a vibration element can be disposed under the vibration platform.

Preferably, the embryo transport system may further include a third transport slope, which is installed on the system base corresponding to one end of the vibration platform opposite to the first transport slope, and a plurality of embryos to be processed slide from the third transport slope to the vibration platform.

As mentioned above, the embryo conveying system and its guide flap provided by the present invention can push the embryo to be processed with the end thereof when the guide flap rotates, so that the embryo to be processed is tilted forward and stacked upright with the embryo to be processed in front in the stacking area, so as to facilitate the subsequent packaging operation and achieve the purpose of improving the processing efficiency.

1: Embryo transport system

10: System base

11: Guided slide

111: Axle hole

112: The periphery of the shaft hole

113: End portion periphery

12: Guidance device

121: Axis

13: Second conveyor slope

131: Guide embryo groove

132: Slotting

14: Stack area

20: The third conveyor slope

30: Vibration platform

31: Vibration element

40: First conveyor slope

50:Conveying device

51:Conveyor belt

Figure 1 is a schematic diagram of the guided flap of the present invention.

Figure 2 is a schematic diagram of the structure of the embryo transport system of the present invention.

Figure 3 is a partial schematic diagram of the embryo transport system of the present invention.

In order to enable people with ordinary knowledge in this field to better understand the technical features of the present invention, the present invention is further described in detail below in conjunction with drawings and embodiments.

Please refer to FIG. 1 . The present invention provides a guide paddle 11 having an axial hole 111. The axial hole 111 is penetrated by a shaft 121 of a guide device 12. The circumference 112 of the axial hole is straight. The corresponding side surface of the shaft 121 is also a straight plane. That is, the cross section of the shaft 121 conforms to the shape of the axial hole 111 so that the axial hole 111 can be penetrated and thereby stably drive the guide paddle 11 to rotate. The circumference 113 of the end portion of the guide paddle 11 is in an arc shape. The circumference of the two opposite ends of the guide flap 11 is in an arc shape, that is, the circumference of the two ends in an arc shape corresponds to each other, and the shaft 121 rotates in the forward rotation direction of the guide flap 11 in an arc shape, so that the arc-shaped end can contact the embryo to be processed, and the risk of damage to the embryo to be processed is reduced by its arc shape.

Please refer to Figures 2 and 3. In addition to the aforementioned guide flaps 11, this embodiment further proposes an embryo transport system 1, which includes a first transport slope 40, a transport device 50, a second transport slope 13, a stacking area 14 and a guide device 12. The guide device 12 further includes a plurality of the aforementioned guide flaps 11.

The first conveying slope 40 is installed on the system base 10, and a plurality of embryos to be processed slide along the first conveying slope 40.

The conveying device 50 is installed on the system base 10 corresponding to the first conveying slope 40. The conveying device 50 has a conveyor belt, which conveys a plurality of embryos to be processed that slide on the first conveying slope 40.

The second conveying slope 13 is installed on the system base 10 corresponding to one end of the conveying device 50 relative to the first conveying slope 40. The embryos to be processed transported by the conveyor belt will slide along the second conveying slope 13.

The stacking area 14 is installed on the system base 10 corresponding to one end of the second conveying slope 13 opposite to the conveying device 50. It is used to stop the embryos to be processed from sliding down from the second conveying slope 13. The embryos to be processed that slide to the stacking area 14 will be stacked on each other for subsequent packaging and processing.

The embryo conveying system 1 has a plurality of embryo guiding grooves 131, each of which extends along the first conveying slope 40, the conveying device 50, and the second conveying slope 13 to the stacking area 14, that is, each embryo guiding groove 131 starts from the first conveying slope 40, along the conveying device 50, the second conveying slope 13, and finally ends at the stacking area 14.

The guide device 12 includes a plurality of the aforementioned guide flaps 11. The guide device 12 is rotatably arranged on the system base 10 corresponding to the lower side of the second conveying slope 13. The guide device 12 has a shaft 121. The second conveying slope 13 is provided with a plurality of slots 132 on the bottom surface of each guide groove 131. Each guide flap 11 is provided corresponding to each slot 132 and is sleeved on the shaft 121. The shaft 121 drives the plurality of guide flaps 11 to rotate, and both ends of each guide flap 11 pass through the slot 132 during rotation. 32 and push the plurality of embryos to be processed passing through the second conveying slope 13. Since the embryos to be processed originally slide from the second conveying slope 13 in a similar lying state, after the head ends of the plurality of embryos to be processed are pushed by the arc-shaped end of the guide flap, the tail ends of each embryo to be processed are still in contact with the surface of the second conveying slope 13, while the head ends are pushed away from the surface of the second conveying slope 13, and then the embryos to be processed will be tilted forward along each guide embryo groove 131 toward the stacking area 14 and stacked upright in the stacking area 14.

As shown in FIG. 1 , the embryo transport system 1 may further include a vibration platform 30, which is mounted on the system base 10 corresponding to one end of the first transport slope 40 opposite to the transport device 50, and the plurality of embryos to be processed are moved to the first transport slope 40 by the vibration of the vibration platform 30. More specifically, a vibration element 31 may be disposed below the vibration platform 30, and the vibration platform 30 is vibrated by the vibration element 31, thereby shaking apart the overlapping embryos to be processed and allowing them to enter each embryo guide slot 131 more evenly.

Furthermore, the embryo transport system 1 may further include a third transport slope 20, which is mounted on the system base 10 corresponding to one end of the vibration platform 30 relative to the first transport slope 40. A plurality of embryos to be processed that have completed the previous processing procedure can slide from the third transport slope 20 to the vibration platform 30. The subsequent displacement is performed as described above, and no further description is given here.

As mentioned above, the embryo conveying system 1 and its guide flap 11 provided by the present invention can push the embryo to be processed with the arc at the end when the guide flap 11 rotates, so that the embryo to be processed is tilted forward and stacked upright with the embryo to be processed in front in the stacking area 14, so as to facilitate the subsequent packaging operation and achieve the purpose of improving the processing efficiency. However, the above is only an example and should not be limited to this.

The above is only the best implementation of the present invention. It should be pointed out that for those with ordinary knowledge in this technical field, several improvements and modifications can be made without departing from the principle of the present invention. These improvements and modifications should also be regarded as the protection scope of the present invention.

11: Guided slide

111: Axle hole

112: The periphery of the shaft hole

113: End portion periphery

Claims (4)

A embryo transport system includes: a first transport slope, which is installed on a system base, and a plurality of embryos to be processed slide along the first transport slope; a transport device, which is installed on the system base corresponding to the first transport slope, and the transport device has a conveyor belt, and the conveyor belt transports the plurality of embryos to be processed that slide along the first transport slope; a second transport slope, which is installed on the system base corresponding to an end of the transport device relative to the first transport slope; a stacking area, which is installed on the system base corresponding to an end of the second transport slope relative to the transport device, and the embryo transport system has a plurality of embryo guide grooves, each of which extends from the first transport slope, the transport device, the second transport slope to the stacking area in sequence; and a plurality of guide flaps. A guide device is provided, the guide device is rotatably axially arranged on the system base corresponding to the lower part of the second conveying slope, each of the guide flaps has an axial hole, the axial hole is penetrated by an axis of the guide device, and the circumference of the axial hole part is straight, and the circumference of the end part of the guide flap is arc-shaped, and the second conveying slope is respectively provided with a plurality of slots on the bottom surface of each guide embryo slot, and each of the guide flaps has a plurality of slots on the bottom surface of each guide embryo slot. The guide flaps are arranged corresponding to each of the slots and sleeved on the shaft. The shaft drives the plurality of guide flaps to rotate, and the two ends of each of the guide flaps pass through the slots and push against the plurality of embryos to be processed passing through the second conveying slope during rotation. After being pushed, the plurality of embryos to be processed tilt forward along each of the guide embryo slots toward the stacking area and are stacked upright in the stacking area. The embryo transport system as described in claim 2 further comprises a vibration platform, which is mounted on the system base corresponding to one end of the first transport slope relative to the transport device, and the plurality of embryos to be processed are vibrated and displaced to the first transport slope by the vibration of the vibration platform. The embryo transport system as described in claim 3, wherein a vibration element is disposed below the vibration platform. The embryo transport system as described in claim 3 further comprises a third transport slope, which is installed on the system base corresponding to one end of the vibration platform relative to the first transport slope, and the plurality of embryos to be processed slide from the third transport slope to the vibration platform.

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