Multi-area wind path plate adsorption system of cutting machine

Abstract

The utility model discloses a cutting machine multi-area wind path plate adsorption system which comprises a cutting platform frame, a wind path plate and a vacuum adsorption system, the output end of the vacuum adsorption system is divided into a plurality of branch gas paths, and a plurality of adsorption ends are arranged on the branch gas paths respectively. The adsorption ends are arranged below the air path plate in an equidistant array mode so that the air path plate can be divided into a plurality of adsorption areas, and adsorption holes are densely formed in the air path plate at equal intervals and correspond to the adsorption areas. According to the utility model, the product to be processed is placed on the wind path plate, the adsorption end of the corresponding adsorption area is opened through the control system according to the adsorption area corresponding to the position where the product is placed, and the working states of the adsorption ends of other adsorption areas are closed, so that when the vacuum adsorption system is started, the vacuum adsorption system is started; according to the vacuum adsorption system, the negative pressure suction force is only generated in the adsorption area where the to-be-processed product is placed, so that the total output power of the vacuum adsorption system is reduced while the negative pressure adsorption effect on the product is effectively guaranteed, and the situation of resource waste is avoided.

Description

TECHNICAL FIELD

[0001] The utility model relates to platform type cutting machine equipment technical field especially, relates to a cutting machine multi -region air path board adsorption system. BACKGROUND

[0002] In the clothing industry, usually need to adopt large -scale platform type cutting machine to cut and form material such as cloth, to cut the material required for production and processing into corresponding shape, satisfy the demand of subsequent clothing processing etc. In this kind of industry, because the size of the sample cloth material used is relatively large, therefore, the size of the cutting platform required to be configured for cutting machine is also relatively large. In order to fix the product in the cutting process, generally cutting platform is connected with vacuum system, and corresponding adsorption hole is densely arranged on the cutting platform, when the vacuum system starts, negative pressure is generated at the adsorption hole on the whole cutting platform, so as to adsorb and fix the product to be cut. However, in the actual use process, sometimes only the product to be cut is placed in a region of the platform, therefore, most of the adsorption holes on the cutting platform cannot adsorb the product, and the adsorption holes will generate negative pressure suction force, which leads to the decrease of negative pressure pressure of the adsorption hole where the product is adsorbed. In order to ensure the adsorption effect of the product, the total negative pressure pressure generated by the vacuum system needs to be increased, which leads to the waste of resources.

[0003] Therefore, the prior art has defects and needs to be improved. INVENTION CONTENTS

[0004] The utility model aims at overcoming the defects of prior art, and provides a cutting machine multi -region air path board adsorption system.

[0005] The utility model discloses a cutting machine multi -region air path board adsorption system, including: cutting platform frame, set up on the air path board of cutting platform frame and set up on the vacuum adsorption system of cutting platform frame, the output end of vacuum adsorption system is divided into several branch gas paths, several adsorption ends are arranged on the branch gas path respectively, the adsorption end equidistance array arrangement is below the air path board and divides the air path board into several adsorption areas, the air path board is densely provided with adsorption hole in each adsorption area equidistance.

[0006] Further, the vacuum adsorption system includes: vacuum generating device arranged on the cutting platform frame, and main pipeline connected with the output end of the vacuum generating device, and the branch gas path is arranged on the main pipeline.

[0007] Further, the adsorption end comprises: a ventilation cavity, and a wind path switching device arranged on the ventilation cavity, one end or both ends of the ventilation cavity is provided with a pipeline interface, a gas path pipeline is sleeved on the pipeline interface, a plurality of groups of pipeline interfaces are connected to form branch gas paths through the gas path pipeline, a communication hole is arranged on one side of the ventilation cavity close to the wind path plate, the communication hole communicates with the adsorption holes in the corresponding adsorption area of the wind path plate, and the wind path switching device actively blocks the connection hole.

[0008] Further, the wind path switching device comprises: a cutoff cylinder arranged on the ventilation cavity, and a cutoff block arranged on the output end of the cutoff cylinder, and the cutoff cylinder drives the cutoff block to actively block the connection hole.

[0009] Further, the ventilation cavity adopts a U-shaped structure or an L-shaped structure, and the wind path switching device is arranged at a recessed position of the U-shaped structure or the L-shaped structure.

[0010] Further, the wind path plate comprises a bottom plate and a panel, the adsorption holes are arranged on the panel, the bottom plate is connected with the adsorption end, and a plurality of partition plates are arranged between the panel and the bottom plate, and the partition plates separate the space between the panel and the bottom plate corresponding to each adsorption area.

[0011] By placing the product to be processed on the wind path plate, the adsorption end of the corresponding adsorption area is opened and the adsorption end of other adsorption areas is closed according to the position of the product, and only the adsorption area where the product to be processed is placed generates negative pressure suction force when the vacuum adsorption system is started, so that the negative pressure adsorption effect of the product is effectively guaranteed, the total output power of the vacuum adsorption system is reduced, and the waste of resources is avoided. BRIEF DESCRIPTION OF DRAWINGS

[0012] Figure 1 It is a structural schematic diagram of the utility model.

[0013] Figure 2 It is a structural schematic diagram of the utility model. CONCRETE EMBODIMENT

[0014] The utility model will be explained in detail in combination with the drawings and specific embodiments.

[0015] Please refer to Figure 1 , Figure 2The utility model provides a cutting machine multi -region air path board 2 adsorption system, include: cutting platform frame 1, set up on cutting platform frame 1 air path board 2 and set up on cutting platform frame 1 vacuum adsorption system 3, the output of vacuum adsorption system 3 is divided into several branch air paths 33, several adsorption ends 34 are arranged respectively on branch air path 33, adsorption end 34 equidistant array arrangement is below air path board 2 to divide air path board 2 into several adsorption areas, the adsorption hole of equidistant dense arrangement is provided with on air path board 2 corresponding each adsorption area.

[0016] In working, the product to be processed is placed on air path board 2, according to the adsorption area corresponding to the position of the product, the adsorption end 34 of the corresponding adsorption area is opened through the control system, and the working state of the adsorption end 34 of other adsorption areas is closed, so that when the vacuum adsorption system 3 is started, only the adsorption area where the product to be processed is placed produces negative pressure suction force, thereby effectively ensuring the negative pressure adsorption effect of the product, reducing the total output power of the vacuum adsorption system 3, and avoiding the waste of resources.

[0017] In some embodiments, the vacuum adsorption system 3 includes: a vacuum generating device 31 arranged on the cutting platform frame 1, and a main pipeline 32 connected to the output end of the vacuum generating device 31, and the branch air path 33 is arranged on the main pipeline 32. In working, negative pressure is generated by the vacuum generating device 31, and negative pressure suction force is generated on each branch air path 33 through the main pipeline 32, so as to satisfy the vacuum adsorption effect of the product placed on the adsorption area corresponding to the adsorption end 34 on each branch air path 33.

[0018] In some embodiments, the adsorption end 34 includes: a ventilation cavity 341, and a wind path switching device 342 arranged on the ventilation cavity 341, one end or both ends of the ventilation cavity 341 are provided with a pipeline interface, a gas path pipeline 35 is sleeved on the pipeline interface, and several groups of pipeline interfaces are connected to form a branch air path 33 through the gas path pipeline 35, a communication hole is arranged on one side of the ventilation cavity 341 close to the air path board 2, the communication hole communicates the adsorption hole in the corresponding adsorption area of the air path board 2, and the wind path switching device 342 blocks the connecting hole.

[0019] When the product needs to be adsorbed in the current adsorption area, the corresponding air path switching device 342 is reset to open the connecting hole, while the air path switching device 342 corresponding to other adsorption areas is started to close the connecting hole, so as to ensure that only the selected adsorption area will generate negative pressure adsorption force when the vacuum adsorption system 3 is started, meeting the demand of adsorbing and fixing the product placed on the adsorption area. At the same time, since the connecting holes of other adsorption areas are closed, no negative pressure suction force will be generated at the adsorption holes corresponding to these adsorption areas, avoiding the negative pressure generated by the vacuum generating device 31 from being weakened by shunting, so as to ensure the stability and reliability of the negative pressure suction force at the adsorption area where the product is placed, and reduce the total output power of the vacuum generating device 31.

[0020] In some embodiments, the air path switching device 342 includes a cutoff cylinder arranged on the ventilation cavity 341, and a cutoff block arranged at the output end of the cutoff cylinder, and the cutoff cylinder drives the cutoff block to move and block the connecting hole. When the current adsorption end 34 needs to be closed, the cutoff cylinder is started to push the cutoff block out, so that the cutoff block tightly abuts against the connecting hole, thereby closing the connecting hole and avoiding the generation of negative pressure suction force at the adsorption hole of the current adsorption end 34 when the vacuum generating device 31 is started. When the current adsorption end 34 needs to be started, the cutoff cylinder is reset to separate the cutoff block from the connecting hole, so that negative pressure suction force is generated at the adsorption hole of the adsorption area corresponding to the current adsorption end 34 when the vacuum generating device 31 is started, meeting the demand of adsorbing and fixing the product.

[0021] In some embodiments, the ventilation cavity 341 adopts a U-shaped structure or an L-shaped structure, and the air path switching device 342 is arranged at the recessed position of the U-shaped structure or the L-shaped structure, so as to reduce the driving stroke of the cutoff cylinder, make the air path switching more rapid, and ensure the stability and reliability of the air path switching effect.

[0022] In some embodiments, the air path plate 2 includes a bottom plate and a panel, the adsorption holes are arranged on the panel, the bottom plate is connected with the adsorption end 34, and a plurality of partition plates are arranged between the panel and the bottom plate, the partition plates separate the space between the panel and the bottom plate corresponding to each adsorption area, so as to effectively separate each adsorption area and effectively ensure the stability of the switching of the working state of the adsorption area.

[0023] In summary, the utility model discloses a product to be processed is placed on the air path board, according to the position of the product placed the corresponding adsorption area, through the control system opens the adsorption end of corresponding adsorption area, and closes the working condition of the adsorption end of other adsorption area, thereby when starting vacuum adsorption system, only the adsorption area where the product to be processed is placed produces negative pressure suction force, thereby effectively guaranteeing the negative pressure adsorption effect to the product, reducing the total output power of vacuum adsorption system, avoiding the condition of resource waste from happening.

[0024] The above is only the preferred embodiment of the utility model, and is not used for limiting the utility model, and any modification, equivalent replacement and improvement etc. that are made within the spirit and principle of the utility model should be included in the protection scope of the utility model.

Claims

1. A multi-zone airflow plate adsorption system for a cutting machine, comprising: A cutting platform frame, an airflow plate disposed on the cutting platform frame, and a vacuum adsorption system disposed on the cutting platform frame are characterized in that the output end of the vacuum adsorption system is divided into several branch airflows, and several adsorption ends are respectively disposed on the branch airflows. The adsorption ends are arranged in an equidistant array below the airflow plate, thereby dividing the airflow plate into several adsorption areas. Adsorption holes are densely distributed at equal intervals on the airflow plate corresponding to each adsorption area.

2. The multi-zone airflow plate adsorption system for cutting machines according to claim 1, characterized in that, The vacuum adsorption system includes: a vacuum generating device disposed on the cutting platform frame, and a main pipeline connected to the output end of the vacuum generating device, wherein the branch gas pipeline is disposed on the main pipeline.

3. The multi-zone airflow plate adsorption system for cutting machines according to claim 1, characterized in that, The adsorption end includes: a ventilation cavity and an air path switching device disposed on the ventilation cavity. One or both ends of the ventilation cavity are provided with pipe interfaces. Air passage pipes are sleeved on the pipe interfaces. Several sets of pipe interfaces are connected through air passage pipes to form branch air passages. A connecting hole is provided on one side of the ventilation cavity that is close to the air passage plate. The connecting hole is connected to the adsorption hole in the corresponding adsorption area of ​​the ventilation passage plate. The air path switching device can actively block the connecting hole.

4. The multi-zone airflow plate adsorption system for cutting machines according to claim 3, characterized in that, The air path switching device includes: a shut-off cylinder disposed on the ventilation cavity, and a shut-off block disposed on the output end of the shut-off cylinder, wherein the shut-off cylinder drives the shut-off block to move and block the connection hole.

5. The multi-zone airflow plate adsorption system for a cutting machine according to claim 3 or 4, characterized in that, The ventilation cavity adopts a U-shaped or L-shaped structure, and the air path switching device is located in the recessed position of the U-shaped or L-shaped structure.

6. The multi-zone airflow plate adsorption system for cutting machines according to claim 1, characterized in that, The air duct plate includes a base plate and a panel. The adsorption holes are disposed on the panel. The base plate is connected to the adsorption end. Several partition plates are disposed between the panel and the base plate. The partition plates divide the space between the panel and the base plate according to each adsorption area.

Images