JPH036579Y2 - - Google Patents

Description

[Detailed description of the invention] (a) Industrial application field The present invention relates to an apparatus for temporarily storing parts that are being manufactured as finished products.

(b) Conventional technology Traditionally, metal parts such as brass are carried out as finished products from the manufacturing process using a conveyor such as a belt conveyor, and before moving on to the storage and shipping process, the parts are placed in a designated location. It is stored to make subsequent storage and shipping operations easier.

However, since brass parts are easily damaged even if they interfere with each other, there has been a problem in that a large number of damaged parts occur particularly during storage, where brass parts are susceptible to interference effects.

Therefore, a temporary storage device for completed parts has been devised as described in Japanese Utility Model Application Publication No. 61-25323.

That is, in the storage device, a rotating disk is rotatably mounted on a base, and a spiral guide body bent in a spiral shape is disposed at a position close to and above the disk via a support frame. The completed parts are conveyed via a conveying device and dropped onto the outer side of the rotating rotating disk, and are sequentially transferred to the center of the rotating disk via the same guide body and stored therein. It is something.

Therefore, according to the storage device, completed parts can be stored smoothly in a predetermined place without interfering with each other, so damage to the completed parts can be reliably avoided and finished parts can be stored efficiently. This has the effect of making it possible to perform transportation, storage, etc.

(c) Problems to be solved by the invention However, in the case of the above-mentioned storage device, the completed parts dropped on the periphery of the rotating disk are guided by the spiral guide body and are sequentially transferred to the center, and the completed parts are Although these parts are concentrated in the center of the rotating disk, making it easier to collect the completed parts later, the area in which completed parts can be stored is limited to the center of the rotating disk, making it difficult to collect many completed parts. If they are placed too closely together, mutual interference may cause damage to the parts.

Therefore, in the case of such a storage device, many finished parts could not be stored.

Moreover, the upper surface of the rotating disk must be cleaned to remove chips and other particles that have adhered to the completed parts and been transported, which requires the removal of the spiral guide. Therefore, such cleaning work could not be carried out easily.

(d) Means for solving the problem Therefore, in the present invention, a rotating disk for primary storage of completed parts is mounted on a base so as to be able to rotate freely,
A conveying section for conveying the completed parts to the center of the rotating disk is arranged on the lateral side of the rotating disk. A spiral guide body bent in a spiral shape is attached to the tip of the transport unit, and when the transport unit is collapsed, the guide body is located close to the center of the upper surface of the rotating disk, and the spiral direction of the guide body and the turning circle are aligned. It is an object of the present invention to provide a temporary storage device for completed parts in which the turning direction of the plate is in the same direction.

(E) Effect When performing storage work for completed parts, if the conveyance device is laid down and the spiral guide body attached to the tip of the conveyance section is positioned close to the center of the upper surface of the rotating disk, The completed parts transported by the transport section fall onto the center of the upper surface of the rotating disk, and at this time, since the spiral direction of the spiral guide body and the rotating direction of the rotating disk are the same direction. The completed parts are sequentially slid and transferred toward the circumference of the rotating disk while being guided by the spiral guide body by the rotating operation of the rotating disk.

Therefore, the completed parts can be stored at the circumferential edge of the rotating disk without mutual interference.

Moreover, when collecting finished parts after the storage work is completed, by raising the transport section upward, the spiral guide body is lifted together with the transport part, making it easy to collect the completed parts. This is what happens.

Furthermore, the cleaning operation of the upper surface of the rotating disk can also be carried out reliably and easily.

(f) Effects According to the present invention, since the finished parts are stored by slidingly transferred from the center of the rotating disk toward the periphery via the spiral guide, the amount of finished parts stored can be reduced. In addition to being able to increase the number of parts, interference between parts can be avoided and damage to finished parts can be prevented.

Moreover, since the conveying section is configured to be able to rise and fall freely, the spiral guide body attached to the tip of the conveying section is separated from the rotating disk, allowing for collection of accumulated completed parts and for cleaning the upper surface of the rotating disk. Ensures cleaning work, etc.
In addition, it is easy to perform and has the effect of improving work efficiency.

(G) Example The example of the present invention will be explained in detail based on the drawings.
A shown in FIGS. 1 and 2 is a storage device, in which a storage section 3 and a conveyance section 4 are mounted on a mobile machine stand 2 having casters 1.

The storage section 3 has a rotating shaft 6 protruding from the upper side of a base 5 which also serves as a controller box, and the center of a rotating disk 7 is fixed to the rotating shaft 6 to horizontally support the rotating disk 7. ing. Further, 7a is a peripheral guide body protruding from the peripheral edge of the rotating disk 7.

A cushioning material such as rubber is stretched over the upper surface of the rotating disk 7 to prevent damage to the completed parts B falling from the belt conveyor 13, which will be described later.

A prime mover section 9 for driving the rotary shaft 6 is provided within the base 5, and the prime mover section 9 is driven by a swivel base start switch 5a provided on the front side of the base 5.

In addition, on the front side of the base 5, a transport section 4, which will be described later, is provided.
A conveyor start switch 8 for starting the belt conveyor and a main switch 10 for the prime mover section 9 are provided.

The transport section 4 includes a support 1 erected from the mobile machine stand 2.
Moreover, the conveyor section 4 is attached to the upper end of the conveyor support frame 12, which has a narrow longitudinal shape in the front and rear, by pivoting the base end of the conveyor support frame 12 via a bracket 12a so that it can be raised and lowered. 12 is extended toward the center of the rotating disk 7, and the frame 1
A belt conveyor 13 is wound in the longitudinal direction of 2,
The conveyor 13 is configured to be driven by a conveyor drive motor 14 attached to a bracket 12a. 14a is a drive shaft of the dynamic motor 14.

Then, at the tip of the conveyor support frame 12,
An upper connecting bracket 15 is vertically disposed at a position corresponding to the rotating shaft 6 of the rotating disk 7, and the upper connecting bracket 15
A lower connecting bracket 16 is provided at the tip of the rotating shaft 6.
The two brackets 15 and 16 are configured to be able to be connected by a connecting pin 17 by bringing them into contact with each other in an overlapping state.

Moreover, a spiral guide body 18 is vertically disposed at the tip of the conveyor support frame 12 via a support bracket 19, and the guide body 18 is connected to the above-mentioned brackets 15 and 16, and its center is aligned with the rotating shaft 6.
The guide body 18 itself is configured to be horizontally held at a position close to the upper surface of the rotating disk 7.

Further, with the spiral direction of the spiral guide body 18 and the rotation direction of the rotating disk 7 being the same direction, the terminal end 13a of the belt conveyor 13
It is located above the center of the rotating disk 7 surrounded by 8. 12c is conveyor support frame 1
This is a gripping portion provided at two ends of the frame 12, and is gripped when the upper and lower connecting brackets 15 and 16 are connected or disconnected to raise and lower the frame 12. 13b is the starting end of the belt conveyor.

Reference numeral 20 denotes a telescopic stay, and the stay 20 is configured to be bent freely from the center in a dogleg shape, and the upper end is connected to the bracket 12a 20a, and the lower end is connected to the support 11 20b. By stretching and fixing the conveyor support frame 12, which is rotated upward about the pivot portion 12b, it is possible to support the conveyor support frame 12 in an inclined manner.

Moreover, 21 is a falling part protection guide body.

The embodiment of the present invention is constructed as described above, and when performing the storage work of completed parts B,
Completed parts B are sequentially transferred to the starting end 1 of the belt conveyor 13.
3b, the completed part B on the conveyor 13 is conveyed in the direction of the rotating disk 7 in front, and is dropped onto the rotating disk 7 rotating from the terminal end 13a of the conveyor 13, On the rotating disk 7, it is slid toward the circumference of the rotating disk 7 due to centrifugal force, and at this time, the completed part B is surrounded by the spiral guide body 18, and Since the spiral direction of the guide body 18 matches the rotation direction of the rotating disk 7, the completed part B moves toward the circumferential edge of the rotating disk while being guided by the inner surface of the guide body 18. The information is stored in sequence.

Note that a peripheral guide body 7 is provided on the peripheral edge of the rotating disk 7.
Since the part a is provided in a protruding manner, the problem of the completed part B falling off from the rotating disk 7 does not occur.

Moreover, the completed parts B stored on the rotating disk 7
When recovering the conveyor, remove the connecting pin 17 to release the connection between the upper and lower connecting brackets 15 and 16, press the base end of the conveyor support frame 12 downward, and press the distal end side against the pivot support 12b. If the center is lifted up according to this principle and supported in an inclined manner via the telescopic stay 20, the spiral guide body 18 will also be lifted together with the frame 12, so that the completed parts on the upper surface of the rotating disk 7 can be It can be easily collected even from any direction. Furthermore, after the completed parts are collected, since the upper part of the rotating disk 7 is open and free of anything, cleaning work etc. on the upper surface of the rotating disk 7 can be performed reliably and easily.

[Brief explanation of the drawing]

FIG. 1 is a side view of the storage device according to the present invention.
FIG. 2 is a plan view of the main parts. A: storage device, 4: conveyance section, 5: base, 7: rotating disk, 18: spiral guide body.

Claims (1)

[Scope of utility model registration request] A rotating disk 7 for primary storage of completed parts,
It is attached to the base 5 so as to be able to rotate freely, and a conveying section 4 for conveying completed parts to the center of the rotating disk 7 is arranged on the lateral side of the rotating disk 7, and the conveying section 4 is attached to the base end. A spiral guide body 18 is attached to the distal end of the conveyance section 4 so that the conveyance section 4 can be raised and lowered, and a spiral guide body 18 is attached to the distal end of the conveyance section 4.
is located close to the center of the upper surface of the rotating disk 7, so that the spiral direction of the guide body 18 and the rotating direction of the rotating disk 7 are in the same direction.