Flange integration process equipment

Abstract

The utility model belongs to the technical field of flange production, and discloses flange integrated process equipment which comprises a dust suction device, an air tightness detection device, a sensor device, a two-dimensional code device and a cleaning device. The air tightness detection device can perform air tightness detection on the flange after dust collection; the sensor device can install a sensor on a flange qualified in air tightness detection, and performs code scanning recording on the sensor. The two-dimensional code device can print a two-dimensional code on the flange on which the sensor is mounted through laser, and scan and record the two-dimensional code; and the cleaning device can perform ionization cleaning on the flange printed with the two-dimensional code. According to the utility model, automatic production operation of flanges is realized through the dust collection device, the air tightness detection device, the sensor device, the two-dimensional code device and the cleaning device, the number of workers is reduced, manpower and material resources are saved, and information of each product can be stored and traced.

Description

Technical Field

[0001] The utility model relates to the technical field of flange production, in particular to flange integrated process equipment. Background Art

[0002] Currently, manual flange production requires manual dust blowing, manual airtightness testing, manual sensor assembly, manual flange coding, as well as visual inspection and packaging. This manual production process is cumbersome and complex, and each step requires a separate piece of equipment. This means each piece of equipment requires at least one person to operate, and at least five people are required for the entire production process. This not only wastes significant manpower and resources, but also introduces significant errors during production that affect the final product quality of the flange. Furthermore, it is impossible to track the relevant information about each flange's production process, hindering the subsequent storage and traceability of product information. Therefore, how to achieve automated flange production, reduce the number of staff, save manpower and resources, and ensure that each product's information can be stored and traced is a challenge currently facing researchers in this field. Utility Model Content

[0003] The purpose of the utility model is to provide a flange integrated process equipment to realize the automated production operation of flanges, reduce the number of staff, save manpower and material resources, and enable each product information to be stored and traced.

[0004] To achieve this purpose, the present invention adopts the following technical solutions:

[0005] Flange integrated process equipment, including:

[0006] A dust suction device, which can suction dust from the flange;

[0007] An airtightness detection device, which can perform airtightness detection on the flange after dust collection;

[0008] A sensor device, which is capable of installing a sensor on the flange that has passed the air tightness test and scanning and recording the sensor;

[0009] A QR code device capable of laser printing a QR code on the flange after the sensor is installed and scanning and recording the QR code;

[0010] A cleaning device is provided, which can perform ionization cleaning on the flange after the QR code is printed.

[0011] Optionally, it includes a first box and a second box, the dust collection device and the airtightness detection device are placed in the first box, the sensor device, the QR code device and the cleaning device are placed in the second box, and the first box and the second box realize continuous production of the flange through a conveyor belt.

[0012] Optionally, a first conveyor belt is provided in the first box body, and a second conveyor belt is provided in the second box body. The first conveyor belt can convey the flange that has passed the air tightness test to the second box body, and the second conveyor belt can convey the flange after ionization cleaning to the outside of the second box body.

[0013] Optionally, it also includes an auxiliary conveying device, which includes a first conveying component and a second conveying component. The first conveying component can transfer the flange after dust collection out of the dust collection device, and the second conveying component can transport the flange after dust collection to the air tightness detection device. The second conveying component can also transport the flange that passes the air tightness test to a short conveyor belt, and transfer it to the first conveyor belt through the short conveyor belt. The first conveyor belt can transport the flange to the sensor device.

[0014] Optionally, the auxiliary conveying device also includes a third conveying component, a fourth conveying component, a fifth conveying component and a sixth conveying component. The third conveying component can transfer the flange after the sensor is installed out of the sensor device, the fourth conveying component can transport the flange after the sensor is installed to the QR code device, the fifth conveying component can transfer the flange after the QR code is printed out of the QR code device, and the sixth conveying component can transport the flange after the QR code is printed to the cleaning device.

[0015] Optionally, a first defective station is further provided, and the second conveying assembly can transport the flange that fails the airtightness test to the first defective station.

[0016] Optionally, a second defective station is further provided, and the sixth conveying assembly can transport the sensor with a defective installation and / or the flange with a defective QR code printing to the second defective station.

[0017] Optionally, an indicator light is also provided, which can sound a whistle and flash a light when the flange integrated process equipment is in normal operation, stopped operation or has an operation failure.

[0018] Optionally, a display screen is also provided, which can display the internal process flow of the flange integrated process equipment in real time.

[0019] Optionally, the first box body is provided with a first operating port, and the second box body is provided with a second operating port and a third operating port. The flange can be placed in the dust collection device through the first operating port, the flange that passes the air tightness test can be placed at the sensor device through the second operating port, and the flange after ionization cleaning can be taken out through the third operating port.

[0020] Beneficial effects of the utility model:

[0021] The present invention utilizes a vacuuming device to vacuum the flange to improve the accuracy of the entire flange installation inspection. An airtightness detection device is used to perform an airtightness test on the flange after vacuuming. A sensor is installed on the flange that has passed the airtightness test through a sensor device, and the sensor is scanned and recorded, so that the sensor information on each flange is accurately recorded. A QR code device is then used to laser print a QR code on the flange after the sensor is installed, and the QR code is scanned and recorded, so that the production information of the product can be effectively stored and traced, and matched one-to-one with the sensor information, which is beneficial for subsequent product maintenance and investigation. Furthermore, a cleaning device can be used to perform ionization cleaning on the flange after the QR code is printed, so that the flange can be packaged and shipped after being thoroughly cleaned. BRIEF DESCRIPTION OF THE DRAWINGS

[0022] Figure 1 It is a schematic top view of the interior of the first box body in the flange integrated process equipment according to an embodiment of the present utility model;

[0023] Figure 2 This is a schematic top view of the interior of the second box in the flange integrated process equipment according to an embodiment of the present utility model;

[0024] Figure 3 This is an axonometric diagram of the first box in the flange integrated process equipment according to an embodiment of the present utility model;

[0025] Figure 4 This is an axonometric diagram of the flange integrated process equipment according to an embodiment of the present invention after the first box body hides the first upper box body;

[0026] Figure 5 This is another isometric diagram of the flange integrated process equipment according to an embodiment of the present invention after the first box body hides the first upper box body;

[0027] Figure 6 This is an axonometric diagram of the flange integrated process equipment according to an embodiment of the present invention after the first box body hides the first upper box body and the second upper box body;

[0028] Figure 7 This is an axonometric diagram of the second box in the flange integrated process equipment according to an embodiment of the present utility model;

[0029] Figure 8 This is another isometric schematic diagram of the second box in the flange integrated process equipment according to an embodiment of the present utility model;

[0030] Figure 9 This is an axonometric diagram of the flange integrated process equipment according to an embodiment of the present invention after the second box body hides the second upper box body;

[0031] Figure 10 This is another isometric diagram of the flange integrated process equipment according to an embodiment of the present invention after the second box body hides the second upper box body;

[0032] Figure 11 This is an axonometric diagram of the flange integrated process equipment described in an embodiment of the present utility model after the second box body hides the second upper box body and the second lower box body.

[0033] In the picture:

[0034] 100-flange; 110-first lower box; 120-first upper box; 121-first operating port; 210-second lower box; 220-second upper box; 221-second operating port; 222-third operating port; 300-indicator light; 400-display screen; 10-dust collection device; 20-airtightness detection device; 30-first conveyor belt; 40-sensor device; 50-QR code device; 60-cleaning device; 70-second conveyor belt; 21-telescopic cylinder; 22-pressing block;

[0035] 81-first conveying assembly; 811-first slide; 812-first fixed seat; 82-second conveying assembly; 821-second slide; 822-second fixed seat; 8221-first extension plate; 83-third conveying assembly; 831-third slide; 832-third fixed seat; 84-fourth conveying assembly; 841-fourth slide; 842-fourth fixed seat; 8421-second extension plate; 85-fifth conveying assembly; 851-fifth slide; 852-fifth fixed seat; 86-sixth conveying assembly; 861-sixth slide; 862-sixth fixed seat. DETAILED DESCRIPTION

[0036] The following describes in detail embodiments of the present invention. Examples of the embodiments are shown in the accompanying drawings, wherein the same or similar reference numerals throughout represent the same or similar components or components having the same or similar functions. The embodiments described below with reference to the accompanying drawings are exemplary and are intended to explain the present invention, and should not be construed as limiting the present invention.

[0037] In the description of this utility model, unless otherwise expressly specified or limited, the terms "connected," "connect," and "fixed" should be understood in a broad sense. For example, they may refer to fixed or detachable connections, mechanical or electrical connections, direct or indirect connections through an intermediate medium, and internal communication between two components or interaction between two components. Those skilled in the art will understand the specific meanings of the above terms in this utility model based on specific circumstances.

[0038] In the description of the present utility model, unless otherwise expressly specified or limited, a first feature being "above" or "below" a second feature may include the first feature and the second feature being in direct contact, or may include the first feature and the second feature being in contact not directly but through another feature between them. Moreover, a first feature being "above," "above," and "above" a second feature includes the first feature being directly above and obliquely above the second feature, or simply indicates that the first feature is higher in level than the second feature. A first feature being "below," "below," and "below" a second feature includes the first feature being directly below and obliquely below the second feature, or simply indicates that the first feature is lower in level than the second feature.

[0039] Currently, manual flange production requires manual dust blowing, manual airtightness testing, manual sensor assembly, manual flange coding, as well as visual inspection and packaging. This manual production process is cumbersome and complex, and each step requires a separate piece of equipment. This means each piece of equipment requires at least one person to operate, and at least five people are required for the entire production process. This not only wastes significant manpower and resources, but also introduces significant errors during production that affect the final product quality of the flange. Furthermore, it is impossible to track the relevant information about each flange's production process, hindering the subsequent storage and traceability of product information. Therefore, how to achieve automated flange production, reduce the number of staff, save manpower and resources, and ensure that each product's information can be stored and traced is a challenge currently facing researchers in this field.

[0040] The technical solution of this embodiment will be further described below with reference to the accompanying drawings and through specific implementation methods.

[0041] like Figures 1-11As shown, this embodiment provides a flange integrated process equipment, including a dust suction device 10, an airtightness detection device 20, a sensor device 40, a QR code device 50 and a cleaning device 60. The dust suction device 10 can vacuum the flange 100; the airtightness detection device 20 can perform airtightness detection on the flange 100 after dust suction; the sensor device 40 can install a sensor on the flange 100 that has passed the airtightness test, and scan and record the sensor; the QR code device 50 can laser print a QR code on the flange 100 after the sensor is installed, and scan and record the QR code; the cleaning device 60 can perform ionization cleaning on the flange 100 after the QR code is printed.

[0042] Specifically, in this embodiment, the dust collection device 10 can be used to collect dust from the flange 100 to improve the accuracy of the entire installation inspection of the flange 100. The airtightness detection device 20 can be used to perform airtightness inspection on the flange 100 after dust collection, and the sensor device 40 is used to install a sensor on the flange 100 that has passed the airtightness inspection, and the sensor is scanned and recorded, so that the sensor information on each flange 100 is accurately recorded. Then, the QR code device 50 is used to laser print a QR code on the flange 100 after the sensor is installed, and the QR code is scanned and recorded, so that the production information of the product can be effectively stored and traced, and it can be matched one-to-one with the sensor information, which is beneficial to the maintenance and investigation of subsequent products. Furthermore, the cleaning device 60 can be used to perform ionization cleaning on the flange 100 after the QR code is printed, so that the flange 100 can be packaged and shipped after being thoroughly cleaned.

[0043] The specific structure of the flange integrated process equipment in this embodiment is described below.

[0044] like Figure 1-Figure 3 and Figure 7-Figure 8 As shown, the flange integrated process equipment in this embodiment includes a first box body and a second box body, and a dust collection device 10, an airtightness detection device 20 and a first conveyor belt 30 are provided in the first box body, and a sensor device 40, a QR code device 50, a cleaning device 60 and a second conveyor belt 70 are provided in the second box body, and an indicator light 300 is provided on both the first box body and the second box body, and a display screen 400 is also provided on the second box body. Specifically, the dust collection device 10 can vacuum the flange 100, the airtightness detection device 20 can perform airtightness detection on the flange 100 after vacuuming, the sensor device 40 can install a sensor on the flange 100 that has passed the airtightness test, and can scan and record the sensor, the QR code device 50 can laser print a QR code on the flange 100 after the sensor is installed, and scan and record the QR code, and the cleaning device 60 can perform ionization cleaning on the flange 100 after the QR code is printed, thereby realizing the entire production process of the flange 100.

[0045] For example, the flange integrated process equipment in this embodiment also includes an auxiliary conveying device, and the relevant devices in the first box and the second box can be transported by the auxiliary conveying device to transport the flange 100, thereby realizing automated production. Furthermore, the first box and the second box also realize continuous production of the flange 100 through a conveyor belt. In this embodiment, the first conveyor belt 30 can transport the flange 100 that has passed the airtightness test to the second box, and the second conveyor belt 70 can transport the flange 100 after ionization cleaning to the outside of the second box, thereby realizing the integrated operation of the flange integrated process equipment. Compared with the five workstations in the prior art, it is directly reduced to one workstation, reducing the number of operators, simplifying the production process of the flange 100, improving production efficiency, and reducing safety hazards in the production process through automated equipment.

[0046] like Figure 3 As shown, in this embodiment, the first box body includes a first lower box body 110 and a first upper box body 120, and a first operation port 121 is provided on the first upper box body 120. Figure 4-Figure 6 As shown, in this embodiment, the first housing houses a dust collection device 10, an airtightness detection device 20, and a first conveyor belt 30. Furthermore, the first conveyor assembly 81 and the second conveyor assembly 82 of the auxiliary conveyor device are also housed in the first housing. Specifically, the airtightness detection device 20 includes a telescopic cylinder 21 and a pressure block 22. The first conveyor assembly 81 includes a first slide 811 and a first fixed seat 812. The second conveyor assembly 82 includes a second slide 821 and a second fixed seat 822. The second fixed seat 822 is provided with a first extending plate 8221.

[0047] Optionally, in this embodiment, the first lower box body 110 and the first upper box body 120 are both configured as square shells, and the dust collection device 10, the airtightness detection device 20, the first conveyor belt 30, the first conveying assembly 81 and the second conveying assembly 82 are all installed on the first lower box body 110 and covered by the first upper box body 120 to prevent the external environment from polluting the interior and affecting the dust collection detection of the flange 100. Furthermore, the flange 100 can be placed in the dust collection device 10 through the first operating port 121, so that the dust collection operation can be performed in the dust collection device 10. Specifically, the first conveying assembly 81 can transfer the flange 100 after dust collection out of the dust collection device 10, and the second conveying assembly 82 can transport the flange 100 after dust collection to the airtightness detection device 20, thereby realizing the continuous movement of the flange 100 after dust collection and entering the airtightness detection. For example, the telescopic cylinder 21 can drive the pressure block 22 to move up and down in the vertical direction, so that it can be buckled on the flange 100 for airtightness detection.

[0048] Specifically, the first slide 811 is fixed on the first lower box 110, the first fixed seat 812 is slidably set on the first slide 811, and the first fixed seat 812 is provided with a first support plate and a first clamp. The first support plate can be supported below the flange 100, and the first clamp can be inserted into the flange 100, so that the flange 100 after dust collection can be fixed on the first fixed seat 812, and then the first fixed seat 812 slides on the first slide 811 to achieve the effect of removing the flange 100 from the dust collection device 10. Furthermore, the second slide 821 is fixed on the first lower box body 110, the second fixed seat 822 is slidably set on the second slide 821, and the top of the second fixed seat 822 is horizontally extended with a first extension plate 8221, and a second clamp is provided below the first extension plate 8221. The second clamp can be hooked on the bottom of the flange 100, so that the flange 100 in the first fixed seat 812 can be moved out, so that it can be separated from the first conveying component 81, and then the second fixed seat 822 slides on the second slide 821 to realize the transportation of the flange 100 to the airtightness detection device 20 for airtightness detection.

[0049] For example, in this embodiment, two first protruding plates 8221 are spaced apart on the second fixed seat 822 so as to be able to move two flanges 100 at the same time. Optionally, the dust collection location of the dust collection device 10 is set as a dust collection station, and the detection location of the airtightness detection device 20 is set as a detection station. A first waiting station is set between the dust collection station and the detection station. The first conveying component 81 can transport the flange 100 on the dust collection station to the first waiting station, and the second conveying component 82 can transport the flange 100 at the first waiting station to the detection station, and at the same time can transport the flange 100 that has been tested at the detection station out. Specifically, the second conveying component 82 can transport the flange 100 that has passed the airtightness test to the short conveyor belt, and the short conveyor belt is vertically connected to the first conveyor belt 30. The flange 100 can be directly transferred to the first conveyor belt 30 through the short conveyor belt, and then the flange 100 can be transferred to the sensor device 40 through the first conveyor belt 30, thereby realizing continuous production. Furthermore, in this embodiment, a first defective station is provided on the other side of the short conveyor belt, and the second conveying assembly 82 can transport the flanges 100 that fail the airtightness test to the first defective station, so as to facilitate unified processing by the operators.

[0050] like Figure 7 and Figure 8 As shown, the second box body includes a second lower box body 210 and a second upper box body 220, and the second upper box body 220 is provided with a second operation port 221 and a third operation port 222. Figures 9-11As shown, in this embodiment, the sensor device 40, the QR code device 50, the cleaning device 60, and the second conveyor belt 70 are placed in the second box. The third conveyor assembly 83, the fourth conveyor assembly 84, the fifth conveyor assembly 85, and the sixth conveyor assembly 86 of the auxiliary conveying device are also arranged in the second box. Specifically, the third conveyor assembly 83 includes a third slide 831 and a third fixed seat 832, the fourth conveyor assembly 84 includes a fourth slide 841 and a fourth fixed seat 842, and the fourth fixed seat 842 is provided with a second extension plate 8421. The fifth conveyor assembly 85 includes a fifth slide 851 and a fifth fixed seat 852, and the sixth conveyor assembly 86 includes a sixth slide 861 and a sixth fixed seat 862.

[0051] Optionally, in this embodiment, the second lower box body 210 and the second upper box body 220 are both configured as square shells, and the sensor device 40, the QR code device 50, the cleaning device 60, the second conveyor belt 70, the third conveying assembly 83, the fourth conveying assembly 84, the fifth conveying assembly 85, and the sixth conveying assembly 86 are all installed on the second lower box body 210 and covered by the second upper box body 220 to prevent the external environment from polluting the interior and affecting the sensor installation, QR code printing, etc. of the flange 100. Furthermore, the flange 100 that has passed the airtightness test can be placed at the sensor device 40 through the second operating port 221, and the flange 100 after ionization robbery can be taken out at the third operating port 222, thereby improving the automated production efficiency of the flange 100 and enabling the first box body and the second box body to work together to achieve high-efficiency operation.

[0052] Specifically, the third conveying component 83 can transfer the flange 100 after the sensor is installed out of the sensor device 40, the fourth conveying component 84 can transport the flange 100 after the sensor is installed to the QR code device 50, the fifth conveying component 85 can transfer the flange 100 after the QR code is printed out of the QR code device 50, and the sixth conveying component 86 can transport the flange 100 after the QR code is printed to the cleaning device 60, thereby realizing the automated and coherent movement of the flange 100 sensor installation, QR code printing, and ionization cleaning, thereby achieving the effect of automatic continuous production.

[0053] Specifically, the third slide 831 is fixed on the second lower box body 210, the third fixed seat 832 is slidably set on the third slide 831, and the third fixed seat 832 is provided with a second support plate and a third clamp. The second support plate can be supported below the flange 100, and the third clamp can be inserted into the flange 100, so that the flange 100 that has passed the airtightness test can be fixed on the third fixed seat 832, and then the third fixed seat 832 is slid on the third slide 831 to achieve the effect of moving the flange 100 out of the sensor device 40. Furthermore, the fourth slide 841 is fixed on the second lower box body 210, the fourth fixed seat 842 is slidably set on the fourth slide 841, and the top of the fourth fixed seat 842 is horizontally extended with a second extension plate 8421, and a fourth clamp is provided below the second extension plate 8421. The fourth clamp can be hooked on the bottom of the flange 100, so that the flange 100 on the third fixed seat 832 can be moved out to separate it from the third conveying component 83, and then the fourth fixed seat 842 slides on the fourth slide 841 to realize the transportation of the flange 100 to the QR code device 50 for printing and scanning of the QR code.

[0054] Furthermore, the fifth slide 851 is fixed on the second lower box body 210, the fifth fixed seat 852 is slidably set on the fifth slide 851, and the fifth fixed seat 852 is provided with a fifth clamp, which is inserted into the flange 100, so that the flange 100 transferred by the fourth conveying component 84 can be fixed on the fifth fixed seat 852, and then the fifth fixed seat 852 is slid on the fifth slide 851 to achieve the removal effect of the flange 100 from the QR code device 50. Furthermore, the sixth slide 861 is fixed to the second lower box 210, the sixth fixed seat 862 is slidably disposed on the sixth slide 861, and the sixth fixed seat 862 is provided with a third extension plate, and a sixth clamping claw is provided below the third extension plate. The sixth clamping claw can be hooked on the bottom of the flange 100, thereby being able to remove the flange 100 on the fifth fixed seat 852 and separate it from the fifth conveying assembly 85. Then, by sliding the sixth fixed seat 862 on the sixth slide 861, the flange 100 is transported to the cleaning device 60 for ionization cleaning. Furthermore, after cleaning the flange 100, the cleaning device 60 can convey the flange 100 to the second conveyor belt 70, thereby completing the entire production process of the flange 100.

[0055] For example, in this embodiment, a third protruding plate is further provided on the sixth fixed seat 862 to enable the transfer of two consecutive flanges 100. Optionally, the sensor device 40 is set as a sensor station, the QR code device 50 is set as a QR code station, and the cleaning device 60 is set as a cleaning station. In this embodiment, a second waiting station is provided between the sensor station and the QR code station, and a third waiting station is provided between the QR code station and the cleaning station. Specifically, the third conveying assembly 83 can transport the flange 100 at the sensor station to the second waiting station, the fourth conveying assembly 84 can transport the flange 100 at the second waiting station to the QR code station, the fifth conveying assembly 85 can transport the flange 100 at the QR code station to the third waiting station, and the sixth conveying assembly 86 can transport the flange 100 at the third waiting station to the cleaning station. Furthermore, the cleaned flange 100 is transported out of the second box by the second conveyor belt 70, thereby achieving complete automated continuous production. For example, in this embodiment, a second defective station is provided next to the third waiting station, and the sixth conveying component 86 can transport the flange 100 with poor sensor installation and / or poor QR code printing to the second defective station, so as to facilitate unified processing by the operating personnel.

[0056] Optionally, in this embodiment, an indicator light 300 is also provided, which can flash and sound a whistle in response to the normal operation, shutdown and operation failure status of the flange integrated process equipment. The specific settings can be formulated according to the needs of the site and will not be described in detail here. Furthermore, a display screen 400 is also provided on the second box body, and the display screen 400 can display the internal process flow of the flange integrated process equipment in real time, so as to facilitate the operator to observe the working conditions of the internal equipment in real time. For example, a display screen 400 can also be provided on the first box body, so that the entire production process of the flange 100 can be supervised.

[0057] Obviously, the above embodiments of the present invention are merely examples for the purpose of clearly illustrating the present invention, and are not intended to limit the implementation methods of the present invention. Those skilled in the art will appreciate that other variations or modifications can be made based on the above description. It is not necessary and impossible to enumerate all implementation methods here. Any modifications, equivalent substitutions, and improvements made within the spirit and principles of the present invention shall be included within the scope of protection of the claims of the present invention.

Claims

1. Flange integrated process equipment, characterized in that, include: A dust suction device (10), wherein the dust suction device (10) is capable of suctioning dust from the flange (100); An airtightness detection device (20), wherein the airtightness detection device (20) is capable of performing an airtightness detection on the flange (100) after dust collection; A sensor device (40), wherein the sensor device (40) is capable of installing a sensor on the flange (100) that has passed the airtightness test, and scanning and recording the sensor; A two-dimensional code device (50), wherein the two-dimensional code device (50) is capable of laser printing a two-dimensional code on the flange (100) after the sensor is installed, and scanning and recording the two-dimensional code; A cleaning device (60) is provided, wherein the cleaning device (60) is capable of performing ionization cleaning on the flange (100) after the two-dimensional code is printed.

2. The flange integrated process equipment according to claim 1, characterized in that: The invention also includes a first box and a second box, wherein the dust collecting device (10) and the airtightness detection device (20) are placed in the first box, and the sensor device (40), the QR code device (50) and the cleaning device (60) are placed in the second box, and the first box and the second box realize continuous production of the flange (100) through a conveyor belt.

3. The flange integrated process equipment according to claim 2, characterized in that: A first conveyor belt (30) is provided in the first box body, and a second conveyor belt (70) is provided in the second box body. The first conveyor belt (30) can convey the flange (100) that has passed the airtightness test to the second box body, and the second conveyor belt (70) can convey the flange (100) that has been ionized and cleaned to the outside of the second box body.

4. The flange integrated process equipment according to claim 1, characterized in that: The auxiliary conveying device also includes an auxiliary conveying device, which includes a first conveying component (81) and a second conveying component (82). The first conveying component (81) can transfer the flange (100) after dust collection out of the dust collection device (10), and the second conveying component (82) can transport the flange (100) after dust collection to the airtightness detection device (20). The second conveying component (82) can also transport the flange (100) that has passed the airtightness test to a short conveyor belt, and transfer it to the first conveyor belt (30) through the short conveyor belt. The first conveyor belt (30) can transfer the flange (100) to the sensor device (40).

5. The flange integrated process equipment according to claim 4, characterized in that: The auxiliary conveying device also includes a third conveying component (83), a fourth conveying component (84), a fifth conveying component (85) and a sixth conveying component (86), wherein the third conveying component (83) can transfer the flange (100) after the sensor is installed out of the sensor device (40), the fourth conveying component (84) can transport the flange (100) after the sensor is installed to the QR code device (50), the fifth conveying component (85) can transfer the flange (100) after the QR code is printed out of the QR code device (50), and the sixth conveying component (86) can transport the flange (100) after the QR code is printed to the cleaning device (60).

6. The flange integrated process equipment according to claim 4, characterized in that: A first defective station is also provided, and the second conveying component (82) can transport the flange (100) that fails the airtightness test to the first defective station.

7. The flange integrated process equipment according to claim 5, characterized in that: A second defective station is also provided, and the sixth conveying component (86) can transport the flange (100) with a defective sensor installation and / or a defective two-dimensional code printing to the second defective station.

8. The flange integrated process equipment according to claim 1, characterized in that: An indicator light (300) is also provided, and the indicator light (300) can sound a whistle and flash a light when the flange integrated process equipment is operating normally, stopped operating, or has an operating fault.

9. The flange integrated process equipment according to claim 1, characterized in that: A display screen (400) is also provided, and the display screen (400) can display the internal process flow of the flange integrated process equipment in real time.

10. The flange integrated process equipment according to claim 2, characterized in that: The first box body is provided with a first operating port (121), and the second box body is provided with a second operating port (221) and a third operating port (222); the flange (100) can be placed in the dust collecting device (10) through the first operating port (121); the flange (100) that has passed the airtightness test can be placed at the sensor device (40) through the second operating port (221); and the flange (100) that has been ionized and cleaned can be taken out through the third operating port (222).

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