KR20230164250A - Cutting device that automatically performs cutting and loading for finished products - Google Patents

Abstract

A cutting device capable of automatically loading finished products is disclosed. The cutting device capable of automatically loading finished products according to the present invention is a cutting device that continuously receives semi-finished products from a molding device that molds synthetic resin sheets into semi-finished products of a predetermined shape and cuts them into finished products, and has a cutter of a shape corresponding to the edge of the finished product. A cutting plate that is coupled and has a hollow inside the cutter; a support plate that guides and supports the semi-finished product to the cutting position according to a relative linear drive toward the cutting plate and cuts the semi-finished product through a compression action with the cutter; and a delivery unit for forcibly transporting the finished product so that the finished product cut and extracted from the semi-finished product passes through the hollow, is stacked in the loading unit, and is received. According to the present invention, cutting in response to the semi-finished product production speed of the molding device, as well as collection of scrap and automatic loading of finished products can be performed freely and quickly without the operator's manual labor, thereby preventing a decrease in production efficiency. It can be.

Description

Cutting device capable of automatically loading finished products {CUTTING DEVICE THAT AUTOMATICALLY PERFORMS CUTTING AND LOADING FOR FINISHED PRODUCTS}

The present invention relates to a cutting device capable of automatically loading finished products, which continuously receives semi-finished products from a molding device that molds synthetic resin sheets into semi-finished products of a predetermined shape, cuts them into finished products, and automatically stacks and stores the cut and processed finished products. .

A molding device that manufactures thin plate moldings using synthetic resin sheets made of PVC, PET, PP, PS, PE, and ABS materials includes the process of heating and softening continuously provided synthetic resin sheets and the process of attaching them to a mold of a predetermined shape. Continuous mass production is possible through a series of processes in which the softened synthetic resin sheet is adsorbed and molded into a predetermined shape by applying vacuum or pneumatic pressure through the fine holes formed in the mold, and then cooled, making it possible to produce various food containers, packaging containers, or bowl-shaped trays. It is widely used in manufacturing industries such as:

In addition to mass production, molding devices made of synthetic resin sheets, etc. have the advantage of low manufacturing costs for molds, enabling small quantity production of various types, and easy formability and finishing processing.

However, semi-finished products in the form of sheets that are continuously manufactured by a molding device made of synthetic resin sheets, etc., are manufactured using a cutting mold device or a Thompson device such as Korea Registered Utility Model No. 20-0460128 (registration date: April 25, 2012). There is a problem that production efficiency is hindered and mass production is delayed in that a separate manual process is essentially required to cut or cut each product into the final finished product, collect scrap, and load the finished product one by one. .

In particular, in the case of cutting mold equipment used for cutting processing, the cutting blade is formed integrally with either the upper or lower plate of steel material that is spaced apart from each other, so the production period is long and the production cost is high, so it is a small quantity of a variety of products. There are problems that make it difficult to apply it to production.

In addition, in the case of the Thompson device, the production period is shorter and lower cost compared to cutting mold devices because it is a structure that combines or installs cutters bent in various shapes on either an upper or lower plate made of synthetic resin or wood that is spaced apart from each other. It has the advantage of being suitable for small quantity production of various types as it can be manufactured quickly. However, there is a problem that collection of scrap after cutting and processing and loading of finished products are still separate manual processes.

Republic of Korea Registered Utility Model No. 20-0460128 (Registration Date: April 25, 2012)

The purpose of the present invention is to connect a molding device that continuously manufactures thin plate moldings using synthetic resin sheets, etc., so that cutting processing corresponding to small quantity production of various types can be performed quickly and at low cost, and the loading and extraction of finished products cut and extracted is possible. The aim is to provide a cutting device capable of automatically loading finished products and allowing automatic collection of scrap.

The above purpose is a cutting device that continuously receives semi-finished products from a molding device that molds synthetic resin sheets into semi-finished products of a predetermined shape and cuts them into finished products. A cutter of a shape corresponding to the edge of the finished product is coupled to the inside of the cutter. A cutting plate with a hollow structure; a support plate that guides and supports the semi-finished product to the cutting position according to a relative linear drive toward the cutting plate and cuts the semi-finished product through a compression action with the cutter; And this is achieved by a cutting device capable of automatic loading of finished products, including a delivery unit that forcibly transports the finished products so that the finished products cut and extracted from the semi-finished products pass through the hollow, are stacked in the loading section, and are received.

The support plate includes a cutting frame that comes into contact with the cutter and performs a compression action on the semi-finished product along a relatively linear drive toward the cutting plate; and a support core provided inside the cutting frame in a shape capable of supporting one side of the semi-finished product, and having guide protrusions formed on the edges to guide the semi-finished product to the cutting position.

The sending unit includes a through hole formed through the support core toward one side of the semi-finished product; And it may include a pneumatic device that is in communication with the through hole and provides pneumatic pressure according to a control signal to forcibly transfer the finished product cut and extracted from the semi-finished product to the loading unit.

The sending unit further includes a linear driving device that drives the finished product cut and extracted from the semi-finished product to the loading unit by driving it in a straight line in accordance with a control signal in a state coupled to the support core slideably inserted inside the cutting frame. can do.

The support plate includes a vacuum hole formed through the cutting frame toward the cutter and communicating with a vacuum pump; And it may further include a pad made of an elastic material that is vacuum-adsorbed to the cutting frame according to the operation of the vacuum pump and protects the cutter.

The cutter, the cutting frame, and the support core can be replaced and used according to various semi-finished products molded into various shapes and arrangements.

According to the present invention, a hollow is formed on the inside of a cutting plate to which a cutter of a shape corresponding to the edge of the finished product is coupled, and a support plate driven in a straight line relative to the cutting plate guides the semi-finished product continuously provided from the molding device to the cutting position. and supports it and cuts it by compression action with the cutter, and the output part provided on the support plate is cut from the semi-finished product and forcibly transports the extracted finished product to be stacked and stored in the loading part through the hollow, so that the semi-finished product of the molding device is not required by the operator's manual work. In addition to cutting in response to the production speed, collection of scrap and automatic loading of finished products can be performed freely and quickly, preventing a decrease in production efficiency.

In addition, as cutters and support plates can be manufactured and replaced at low cost in response to the shape of various semi-finished products, cutting processing optimized for small quantity production of various types is performed in conjunction with a molding device that molds synthetic resin sheets into semi-finished products of a predetermined shape. You can do it.

Figure 1 is a diagram showing the overall configuration of a cutting device capable of automatically loading finished products according to an embodiment of the present invention.
Figure 2 is an operational state diagram for explaining a process in which semi-finished products continuously manufactured in a molding device are inputted into the cutting device of Figure 1.
Figure 3 is an operating state diagram for explaining a process in which a semi-finished product continuously manufactured in a molding device is placed on the cutting device of Figure 1.
Figure 4 is an operating state diagram for explaining a process in which a semi-finished product continuously manufactured in a molding device is cut by the cutting device of Figure 1.
Figure 5 is an operating state diagram for explaining the first process in which the semi-finished product continuously manufactured in the molding device is cut by the cutting device of Figure 1 and then forcibly transferred to the loading unit.
Figure 6 is an operating state diagram for explaining the second process in which the semi-finished product continuously manufactured in the molding device is cut by the cutting device of Figure 1 and then forcibly transferred to the loading unit.
Figure 7 is an operating state diagram for explaining a process in which semi-finished products continuously manufactured in a molding device are sequentially inputted into the cutting device of Figure 1.
Figure 8 is an operational state diagram for explaining a process in which semi-finished products continuously manufactured in a molding device are loaded and unloaded by the cutting device of Figure 1.

Hereinafter, preferred embodiments of the present invention will be described in detail with reference to the attached drawings. However, in describing the present invention, descriptions of already known functions or configurations will be omitted to make the gist of the present invention clear.

Figure 1 is a diagram showing the overall configuration of a cutting device capable of automatically loading finished products according to an embodiment of the present invention, and Figure 2 is an operating state diagram for explaining the process in which semi-finished products continuously manufactured in the molding device are inputted into the cutting device of Figure 1. , FIG. 3 is an operating state diagram for explaining the process in which the semi-finished product continuously manufactured in the molding device is seated on the cutting device of FIG. 1, and FIG. 4 is a diagram showing the semi-finished product continuously manufactured in the molding device being cut by the cutting device of FIG. 1. It is an operating state diagram for explaining the process, and Figure 5 is an operating state diagram for explaining the first process in which the semi-finished product continuously manufactured in the molding device is cut by the cutting device of Figure 1 and then forcibly transferred to the loading unit, and Figure 6 is a molding state diagram. It is an operating state diagram for explaining the second process in which the semi-finished products continuously manufactured in the device are cut by the cutting device of FIG. 1 and then forcibly transferred to the loading unit, and FIG. 7 shows the semi-finished products continuously manufactured in the molding device to the cutting device of FIG. 1. It is an operating state diagram for explaining the process of sequential input, and FIG. 8 is an operating state diagram for explaining the process in which semi-finished products continuously manufactured in the molding device are loaded and unloaded by the cutting device of FIG. 1.

In the description and claims of the invention, directions such as up (up), down (bottom), left and right (side or side), front (front, front), back (belly, back), etc. are not intended to limit rights. For convenience of explanation, it is determined based on the relative positions between drawings and configurations, and the three axes can be rotated and changed in correspondence with each other, and this will be followed unless specifically limited.

The cutting device 100 capable of automatically loading finished products according to the present invention not only cuts in response to the production speed of the molding device 10, which molds the synthetic resin sheet (RS) into a semi-finished product (SF) of a predetermined shape without manual labor by the operator. This invention was created to quickly automate the collection of scrap (SC) and loading of finished products (F), and to perform cutting processing optimized for small quantity production of various types in connection with the molding device (10).

At this time, the molding device 10 that can be used in connection with the present invention is a pressure machine that can continuously manufacture thin plate molded products using synthetic resin sheets (RS) such as PVC, PET, PP, PS, PE, and ABS materials. It may be a forming device or a vacuum forming device.

This pressure forming device or vacuum forming device includes a process of heating and softening a continuously provided synthetic resin sheet (RS), a process of attaching it to a mold of a predetermined shape, and a softened synthetic resin sheet ( Through a series of processes of adsorption molding (RS) into a predetermined shape and cooling, various food containers, packaging containers, or bowl-shaped trays can be continuously mass-produced.

In addition, it is suitable for small quantity production of various products by replacing molds made of synthetic resin, which are cheaper to manufacture than steel molds, but requires finishing processing to cut and extract the finished product (F) from the semi-finished product (SF) molded product. There is a feature that makes it possible.

In order to specifically implement cutting and automatic loading of the finished product (F) corresponding to the semi-finished product (SF) production speed of the molding device (10) without manual labor of the operator in connection with the molding device (10) as described above, the present invention As shown in FIG. 1, the cutting device 100 capable of automatically loading finished products according to the embodiment includes a cutting plate 110, a support plate 120, a delivery unit 130, and a loading unit 140. It can be.

Hereinafter, each of the above-described configurations will be described in detail.

First, the cutting plate 110 is a plate shape in which at least one cutter 112 for cutting a semi-finished product (SF) provided by being continuously molded is coupled to the central portion, and a hollow 114 is formed inside the cutter 112. It is a component.

This cutting plate 110 is made of high-strength engineering plastic or metal material to firmly support and fix the cutter 112, and as shown in FIG. 1, the finished product F passing through the hollow 114 is It can be installed parallel to the horizontal direction so that it can freely fall downward and be repeatedly stacked and loaded.

However, if necessary, the cutting plate 110 may be arranged parallel to the vertical direction as shown, as well as a cutter ( It can be coupled to a known, commercially available press device (P) so that the cutting operation of 112) can be performed repeatedly.

The cutter 112 is made of a closed loop-shaped steel plate (Thomson blade) bent to correspond to the edge of the finished product (F), and is easily mounted on the cutting plate 110 while being fixed to a frame made of synthetic resin, wood, or metal. As a component that is combined and separated, a single or double edge may be formed with a sharp edge at the end where the semi-finished product (SF) is compressed and cut.

When these cutters 112 are individually manufactured in a plurality of sets to correspond to various semi-finished products (SF) molded in various shapes and arrangements, they are attached and detached to the cutting plate 110 according to the semi-finished products (SF) to be formed. It can be replaced and used quickly.

As cutting processing of various semi-finished products (SF) can be done easily and quickly by simply replacing the cutter 112, which consists of a plurality of sets as described above, replacement is possible compared to the method of replacing the entire cutting plate 110. Workability and convenience can be improved, manufacturing costs can be reduced, and it can be most efficiently utilized and applied to industrial sites that produce small quantities of various products.

The hollow 114 is a component formed to penetrate the cutting plate 110 on the inside of the cutter 112 to a size that allows the finished product (F) cut and separated from the semi-finished product (SF) to pass through, and is loaded to be described later. It performs the function of guiding the cut finished product (F) to be stacked on the part 140.

This hollow 114 is particularly limited if the size and shape allow the separated finished product (F) to pass through and the above-described cutter 112 can be coupled and fixed to the cutting plate 110 based on the hollow 114. It doesn't work.

The support plate 120 guides and supports the semi-finished product (SF) to the cutting position according to the relative straight drive toward the cutting plate 110 described above, while cutting the semi-finished product (SF) through a compression action with the cutter 112 described above. It is the component that is cut.

This support plate 120 is made of high-strength engineering plastic or metal material and can be installed horizontally in parallel with the above-described cutting plate 110, as shown in FIG. 1, etc., if necessary, as shown. Of course, it can also be arranged parallel to the vertical cutting plate 110.

At this time, the support plate 120 is a commercially known press device (P ) can be combined.

That is, the press device P may be installed on at least one of the support plate 120 and the cutting plate 110 so that the support plate 120 and/or the cutting plate 110 are driven in a relatively straight line toward each other.

The support plate 120 according to an embodiment of the present invention includes a cutting frame 122, a support core 124, a vacuum pump 126, and a pad, as shown in FIG. 1, etc., in order to implement the above functions or operations. (128) and the like.

The cutting frame 122 is a component that comes into contact with the cutter 112 according to a relative straight drive toward the cutting plate 110 and is coupled to and separated from the support plate 120 to perform a compression action on the semi-finished product (SF). As such, it may be made of engineering plastic or metal material with lower hardness than the cutter 112 to prevent damage or damage to the cutter 112.

This cutting frame 122 has a frame member formed to abut against the single or double edge formed at the end of the bent closed-loop cutter 112, and a support core 124, which will be described later, is installed on the inside of the frame member so that it can be inserted. It may include a provided mounting hole, etc.

The support core 124 is a component provided inside the above-described cutting frame 122, that is, in the mounting hole, to support the semi-finished product (SF), and as shown in FIG. 1, etc., the support surface and guide protrusion 124a It may be configured to include, etc.

At this time, the support surface may be formed to be concave inward corresponding to one side of the semi-finished product (SF) so that it can adhere to the semi-finished product (SF) and accurately support the semi-finished product (SF) without shaking during cutting and processing.

And, as shown in FIG. 3, the guide protrusion 124a is driven straight by the support plate 120 (or cutting plate 110) by the press device (P) for cutting processing of the semi-finished product (SF) provided continuously. It is a component that guides the semi-finished product (SF) to the correct cutting position during cutting.

These guide protrusions (124a) are formed to protrude toward the semi-finished product (SF) around the circumference of the above-mentioned support surface so as to contact the semi-finished product (SF) in advance, so that even if the semi-finished product (SF) is provided at a position somewhat deviating from the exact cutting position, the semi-finished product (SF) SF) is naturally guided to the inner support surface.

The pad 128 is a component provided to protect the cutter 112 during cutting due to the compression action between the cutting frame 122 and the cutter 112 described above and to enable cutting of the semi-finished product (SF) more smoothly. am.

This pad 128 is made of an elastic material for cushioning between the cutter 112 and the cutting frame 122, and is made of a shape corresponding to the frame member of the cutting frame 122 in contact with the cutter 112, forming a cutting frame ( 122) can be adsorbed and fixed.

At this time, as shown in FIG. 1, the above-described pad 128 is adsorbed and fixed to the cutting frame 122 through a vacuum hole 122a formed through the cutting frame 122 toward the cutter 112, and a predetermined This can be achieved by operating the vacuum pump 126 that communicates with the vacuum hole 122a through a pipe.

When the cutting frame 122 and the support core 124 as described above are individually manufactured in a plurality of sets in response to various semi-finished products (SF) formed in various shapes and arrangements together with the cutter 112 mentioned above, , it can be quickly replaced and used depending on the semi-finished product (SF) to be formed through attachment and detachment to the support plate 120.

As cutting processing of various semi-finished products (SF) can be performed easily and quickly by simply replacing the cutting frame 122 and the support core 124, which are composed of a plurality of sets as described above, the entire support plate 120 can be When compared to the replacement method, replacement workability and convenience can be improved, manufacturing costs can be reduced, and it can be most efficiently utilized and applied to industrial sites with small quantity production of various products.

The delivery unit 130 is a component that forcibly transports the finished product (F) so that the finished product (F) cut and extracted from the semi-finished product (SF) passes through the hollow 114 and is stacked and stored in the loading unit 140. , as shown in FIG. 1, etc., it may be configured to include a through hole 132, a pneumatic device 134, and a linear drive device 136.

The through hole 132 is a component formed by forming at least one through the support core 124 toward one side of the semi-finished product (SF). The number of through holes 132 is formed depending on the size and structure of the cut and extracted finished product (F). It can be increased or decreased appropriately.

The pneumatic device 134 connects the above-mentioned through hole 132 and It is a component that communicates.

This pneumatic device 134 is coupled to a known commercially available blower, blower, or compressor that can suck in external air according to a control signal and discharge compressed high-pressure air, and generates pneumatic pressure (AP) according to a control signal. It may be composed of a control valve that opens and closes the output of.

The control signal referred to in the present invention is generated by a controller (not shown) provided to control the operation of the cutting device 100, forming device 10, and collection roller 20 according to the present invention, and is generated by each device. Refers to electrical signals that drive devices according to a set order.

As a predetermined pneumatic pressure (AP) is provided between the support core 124 and the finished product (F) due to the through hole 132 and the pneumatic device 134 as described above, the cut finished product (F) is attached to the support core (124). As shown in FIG. 6 in a close contact state, it can be forcibly inserted into the cutter 112 and then transferred to the loading unit 140 through the hollow 114.

The linear driving device 136 is operated together with or independently of the above-described through hole 132 and the pneumatic device 134 so that the finished product (F) cut and extracted from the semi-finished product (SF) is forcibly transferred to the loading unit 140. As an operating component, it can be combined with the support core 124 slidably inserted inside the above-described cutting frame 122.

This linear drive device 136 can be implemented as a known, commercially available actuator that can push the separated finished product (F) into the inside of the cutter 112 by driving it linearly according to a control signal.

For example, known actuators may be a hydraulic or pneumatic cylinder, a ball screw consisting of a screw shaft connected to a motor, and a nut that reciprocates linearly along the screw shaft, and a pinion and rack gear connected to a motor.

When the linear drive device 136 as described above operates together with the through hole 132 and the pneumatic device 134 mentioned above, the cut finished product (F) can be forced to move to the loading unit 140 more quickly. The molding device 10, which continuously manufactures semi-finished products (SF), can continuously mass-produce semi-finished products (SF) without any decrease or delay in production capacity.

The loading unit 140 is a component that stacks and stores the finished product (F), which has been cut and forcibly transported by the above-described delivery unit 130, in one direction and carries it out to the outside. As shown in FIG. 1, etc., the loading plate It may be configured to include (142) and a discharge device (144).

The loading plate 142 is a component that moves up and down to control the number of stacked finished products (F), and the carrying device 144 transports the stacked and stored finished products (F) to the outside of the cutting device (100). It is a component that drives in a straight line to do this.

The linear drive of the loading plate 142 and the unloading device 144 is achieved by a screw shaft connected to a hydraulic or pneumatic cylinder, a motor, etc. as described above, a ball screw consisting of a nut that reciprocates linearly along the screw shaft, a pinion and a rack connected to the motor, etc. It can be implemented by gears, etc.

Hereinafter, the operation process of the cutting device 100 capable of automatically loading finished products according to an embodiment of the present invention will be described with reference to FIGS. 2 to 8.

First, as shown in FIG. 2, in order to input the semi-finished product (SF) continuously manufactured from the molding device 10 into the cutting device 100 of the present invention, the controller of the present invention controls the press device (P). By transmitting a signal, control is performed to drive the support plate 120 linearly upward.

And the controller of the present invention transmits a control signal to the collection roller 20 on which one end of the synthetic resin sheet (RS) is fixed, so that the continuously manufactured semi-finished product (SF) is moved to the cutting position between the support plate 120 and the cutting plate 110. The rotation of the collection roller 20 is controlled so that it is positioned at .

Next, as shown in FIG. 3, in order to ensure that the continuously manufactured semi-finished product (SF) is seated on the support core 124 of the support plate 120, the controller of the present invention sends a control signal to the press device (P). Control is performed to drive the support plate 120 linearly downward.

At this time, the guide protrusion 124a naturally guides the semi-finished product (SF) to the supporting surface of the support core 124 while contacting the continuously provided semi-finished product (SF) before the support surface of the support core 124, thereby accurately guiding the semi-finished product (SF). It is placed at the cutting position.

Next, when the semi-finished product (SF) manufactured continuously as above is seated at the exact cutting position by the guide protrusion 124a, the controller of the present invention, as shown in FIG. 4, uses the cutter 112 and the cutting frame ( 122) Control is performed to drive the support plate 120 in a straight downward direction by transmitting a control signal to the press device (P) so that a compression action, that is, a cutting action, is applied to the semi-finished product (SF).

At this time, the finished product (F) is cut and separated from the semi-finished product (SF) while in contact with the support plate 120.

Next, as shown in FIG. 5, the controller of the present invention controls the linear drive device 136 so that the finished product (F) cut and separated from the semi-finished product (SF) is forcibly inserted into the cutter 112. By transmitting a signal, control is performed to drive the support core 124, which maintains close contact with the finished product (F), in a straight downward direction (the first process of forced transport).

Next, as shown in FIG. 6, the finished product (F) inserted inside the cutter 112 is separated from the inside of the cutter 112 and then stacked and stored on the loading plate 142 through the hollow 114. , the controller of the present invention transmits a control signal to the pneumatic device 134 to control the release of pneumatic pressure (AP) through the through hole 132. (second process of forced transfer)

Next, as shown in FIG. 7, in order to ensure that the semi-finished product (SF) continuously manufactured from the molding device 10 is put back into the cutting device 100 of the present invention, the controller of the present invention uses a press device ( A control signal is transmitted to P) and the linear drive device 136 to perform control to linearly drive the support plate 120 and the support core 124 upward.

And the controller of the present invention controls rotation of the collection roller 20 by transmitting a control signal to the collection roller 20 so that the scrap (SC) from which the finished product (F) is extracted is recovered on the collection roller 20.

Finally, as shown in FIG. 8, the finished product (F), which is repeatedly cut from the semi-finished product (SF) continuously manufactured in the molding device 10 and then automatically loaded in the loading unit 140, can be taken out. , the controller of the present invention transmits a control signal to the unloading device 144 to perform control to drive the unloading device 144 in a straight line.

At this time, the number of finished products (F) that are automatically loaded and stacked on the loading unit 140 may increase or decrease according to the lifting operation of the loading plate 142.

Although specific embodiments of the present invention have been described and shown above, it is known in the art that the present invention is not limited to the described embodiments, and that various modifications and changes can be made without departing from the spirit and scope of the present invention. This is self-evident to those who have it. Accordingly, such modifications or variations should not be understood individually from the technical idea or viewpoint of the present invention, and the modified embodiments should be regarded as falling within the scope of the claims of the present invention.

RS: Synthetic resin sheet
SF: semi-finished product
F: Finished product
SC: Scrap
10: Continuous molding device
20: Collection roller
100: Cutting device capable of automatically loading finished products
110: cutting plate
112: cutter
114: hollow
P: press device
120: support plate
122: Cutting frame
122a: vacuum hole
124: Support core
124a: Guide projection
126: Vacuum pump
128: pad
130: Transmission department
132: Through hole
134: Pneumatic device
AP: Pneumatic
136: Linear driving device
140: Loading unit
142: loading plate
144: Carry out device

Claims (6)

A cutting device that continuously receives semi-finished products from a molding device that molds synthetic resin sheets into semi-finished products of a predetermined shape and cuts them into finished products,
A cutting plate with a cutter of a shape corresponding to the edge of the finished product coupled thereto and a hollow formed inside the cutter;
a support plate that guides and supports the semi-finished product to the cutting position according to a relative linear drive toward the cutting plate and cuts the semi-finished product through a compression action with the cutter; and
A cutting device capable of automatically loading finished products, characterized in that it includes a delivery unit that forcibly transports the finished products so that the finished products cut and extracted from the semi-finished products pass through the hollow, are stacked in the loading section, and are received. According to paragraph 1,
The support plate is,
A cutting frame that comes into contact with the cutter and performs a compression action on the semi-finished product along with a relatively linear drive toward the cutting plate; and
A cutting device capable of automatically loading finished products, comprising a support core provided inside the cutting frame in a shape capable of supporting one side of the semi-finished product, and having guide projections formed on the edges to guide the semi-finished product to the cutting position. According to paragraph 2,
The transmitting department,
A through hole formed through the support core toward one side of the semi-finished product; and
A cutting device capable of automatically loading finished products, comprising a pneumatic device that is in communication with the through hole and provides pneumatic pressure according to a control signal to forcibly transfer the finished product cut and extracted from the semi-finished product to the loading unit. According to paragraph 3,
The transmitting department,
It further comprises a linear driving device that drives the finished product cut and extracted from the semi-finished product to the loading unit by driving it in a straight line in accordance with a control signal in a state coupled to the support core slideably inserted inside the cutting frame. A cutting device capable of automatically loading finished products. According to paragraph 2,
The support plate is,
a vacuum hole formed through the cutting frame toward the cutter and communicating with a vacuum pump; and
A cutting device capable of automatically loading finished products, further comprising a pad of elastic material that is vacuum-adsorbed to the cutting frame according to the operation of the vacuum pump and protects the cutter. According to paragraph 2,
The cutter, the cutting frame, and the support core are,
A cutting device capable of automatically loading finished products, characterized in that it can be replaced and used according to various semi-finished products molded in various shapes and arrangements.

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