Stainless steel machining positioning equipment convenient to install

Abstract

The utility model discloses stainless steel machining positioning equipment convenient to install, and particularly relates to the technical field of machining positioning, the stainless steel machining positioning equipment comprises a restraining mechanism, a fixing assembly and a control assembly, the fixing assembly is installed on the side face of the restraining assembly, and the control assembly is installed below the fixing assembly. And the restraining mechanism comprises a restraining assembly, an anti-skid plate and a connecting plate, the anti-skid plate is installed on the side face of the restraining assembly, and the connecting plate is installed on the side, away from the anti-skid plate, of the restraining assembly. Parts of different models can be positioned through one kind of machining positioning equipment, and the time for replacing the positioning equipment during machining is saved.

Description

Technical Field

[0001] This utility model relates to the field of processing positioning, and more specifically, to a stainless steel processing positioning device that is easy to install. Background Technology

[0002] Machining positioning equipment is used to fix parts in place during cutting and extrusion, ensuring that the parts are held in a precise position and do not shift during processing. Machining positioning equipment may have one or more positioning devices. Its main purpose is to fix parts in place during processing, allowing for precise cutting or extrusion of the parts to be machined.

[0003] A search revealed an existing application (CN201711478204.6) for a workpiece inspection and positioning device. The inspection mechanism includes a detection support plate. Multiple detection probes and a support structure are evenly spaced around the periphery of the support plate. The detection probes transmit detection data via sensors. The support structure includes a T-shaped support base, a spring, and a limiting component. The support plate has mounting holes, the T-shaped support base is fixed within these holes, and the spring is placed within the mounting holes and connected to the lower end of the T-shaped support base. The limiting component includes a limiting hole and a limiting member. The vertical rod of the T-shaped support base has a limiting hole, and the limiting member is movably connected to the detection support plate and cooperates with the limiting hole. The detection support plate is driven to rotate by a driving mechanism, thereby adjusting the T-shaped support base's support for the workpiece or allowing the detection probes to detect the workpiece's surface roughness. The inventors discovered the following problems with the existing technology during the development of this invention:

[0004] Existing machining positioning equipment cannot adjust the size of parts, limiting it to fixing only specific parts. Typically, during machining, a single grinding machine or extruder needs to process multiple different parts. Each time a different part is processed, the machining positioning equipment also needs to be changed, which is cumbersome and significantly reduces machining efficiency. Furthermore, traditional machining positioning equipment cannot be quickly installed based on the positioning device's prompts. During part processing, positional deviations can lead to errors in part positioning, causing the entire part to fail. Moreover, placing parts on the workbench relies entirely on the operator's experience and cannot be calibrated.

[0005] Therefore, a stainless steel processing positioning device that is easy to install is proposed to address the above problems. Utility Model Content

[0006] In order to overcome the above-mentioned defects of the prior art, the present invention provides a stainless steel processing positioning device that is easy to install, so as to solve the problems mentioned in the background art.

[0007] To achieve the above objectives, this utility model provides the following technical solution: a stainless steel processing positioning device that is easy to install, comprising a constraint mechanism, a fixing component, and a control component. The fixing component is mounted on the side of the constraint mechanism, and the control component is mounted below the fixing component. The constraint mechanism includes a constraint component, an anti-slip plate, and a connecting plate. The anti-slip plate is mounted on the side of the constraint component, and the connecting plate is mounted on the side of the constraint component away from the anti-slip plate. The fixing component includes a slide groove, a movable slider, a fixing hole, an infrared sensor, and a fixing bracket. The movable slider is placed on the side of the slide groove, and a fixing hole is drilled in the side wall of the slide groove. An infrared sensor is mounted above the slide groove, and a fixing bracket is mounted below the slide groove. The constraint component includes a connecting crank, a telescopic rod, and a telescopic hole. The telescopic rod is mounted on the side of the connecting crank, and a telescopic hole is drilled in the side wall of the connecting crank. The fixing bracket includes a bracket leg, a stress sensor, and a threaded joint. A stress sensor is mounted on the side of the bracket leg, and a threaded joint is mounted above the bracket leg.

[0008] Preferably, the control component includes a workbench, a human-machine interface, a display, and an alarm light, wherein the human-machine interface is installed on the top of the workbench, the display is installed above the human-machine interface, and an alarm light is placed on the side of the human-machine interface.

[0009] The technical effects and advantages of this utility model are as follows:

[0010] 1. Compared with the existing technology, this easy-to-install stainless steel processing positioning equipment restricts parts through adjustable constraint components, so that parts of different models can be positioned using a single processing positioning equipment, saving time when changing positioning equipment during processing.

[0011] 2. Compared with existing technologies, this easy-to-install stainless steel processing positioning equipment adds a control component to the workbench where parts are placed for processing, making the placement of the processing positioning equipment more convenient. During machine use, it will automatically calibrate. If the machine's processing position deviates from the intended processing position, the alarm light in the control component will automatically sound an alarm. The worker inputs the dimensions of the parts to be processed into the human-machine interface, and the display in the control component will actively display the position where the parts need to be placed during processing and remind the worker how to adjust the position of the fixing component, thus making the placement of the parts processing positioning equipment more convenient. Attached Figure Description

[0012] Figure 1This is a schematic diagram of the overall three-dimensional structure of a stainless steel processing and positioning device that is easy to install according to this utility model.

[0013] Figure 2 This is a schematic diagram of the control component structure of a stainless steel processing positioning device that is easy to install according to this utility model.

[0014] Figure 3 This is a schematic diagram of the fixing component structure of a stainless steel processing positioning device that is easy to install according to this utility model.

[0015] Figure 4 This is a schematic diagram of the constraint component structure of a stainless steel processing positioning device that is easy to install according to this utility model.

[0016] The attached figures are labeled as follows: 1. Constraint mechanism; 2. Fixing component; 3. Control component; 4. Constraint component; 5. Anti-slip plate; 6. Connecting plate; 7. Slide groove; 8. Moving slider; 9. Fixing hole; 10. Infrared sensor; 11. Fixing bracket; 12. Workbench; 13. Human-machine interface; 14. Display; 15. Alarm light; 16. Connecting bend; 17. Telescopic rod; 18. Telescopic hole; 19. Support leg; 20. Stress sensor; 21. Threaded joint. Detailed Implementation

[0017] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings of the embodiments. Obviously, the described embodiments are only some embodiments of the present utility model, and not all embodiments. Based on the embodiments of the present utility model, all other embodiments obtained by those of ordinary skill in the art without creative effort are within the protection scope of the present utility model. Example

[0018] As attached Figures 1 to 4The stainless steel processing positioning device shown includes a constraint mechanism 1, a fixing component 2, and a control component 3. The device is characterized in that: the fixing component 2 is mounted on the side of the constraint mechanism 1, and the control component 3 is mounted below the fixing component 2; the constraint mechanism 1 includes a constraint component 4, an anti-slip plate 5, and a connecting plate 6; the anti-slip plate 5 is mounted on the side of the constraint component 4, and the connecting plate 6 is mounted on the side of the constraint component 4 away from the anti-slip plate 5; the fixing component 2 includes a slide groove 7, a movable slider 8, a fixing hole 9, an infrared sensor 10, and a fixing bracket 11; and the side of the slide groove 7 is... A movable slider 8 is provided, and a fixing hole 9 is drilled in the side wall of the slide groove 7. An infrared sensor 10 is installed above the slide groove 7, and a fixing bracket 11 is installed below the slide groove 7. The constraint assembly 4 includes a connecting bend 16, a telescopic rod 17, and a telescopic hole 18. The telescopic rod 17 is installed on the side of the connecting bend 16, and the telescopic hole 18 is drilled in the side wall of the connecting bend 16. The fixing bracket 11 includes a bracket leg 19, a stress sensor 20, and a threaded joint 21. The stress sensor 20 is installed on the side of the bracket leg 19, and the threaded joint 21 is installed above the bracket leg 19.

[0019] The constraint mechanism 1 can fix the part, preventing it from shifting during processing, and can adjust the vertical distance between the part and the mold, allowing the part to be placed in a position accessible to the mold. The fixing component 2 can fix the constraint mechanism 1 on the worktable 12 and move the constraint mechanism 1 to align the mold and the part. The control component 3 can automatically remind the worker to adjust the position of the fixing component 2 based on the part's dimensions and can provide an early warning of the positional relationship between the mold and the part. The fixing component 2 is installed on the side of the constraint mechanism 1, and the control component 3 is placed below the fixing component 2. The constraint mechanism 1 includes a constraint component 4, an anti-slip plate 5, and a connecting plate 6. The constraint component 4 can fix the part... The anti-slip plate 5 is used to prevent parts from falling due to low friction after being fixed by the constraint component 4. The connecting plate 6 connects the constraint mechanism 1 and the fixing component 2. The anti-slip plate 5 is bolted to the side of the constraint component 4, and the connecting plate 6 is bolted to the side of the constraint component 4 away from the anti-slip plate 5. Before the worker processes the part, the part needs to be placed on the processing positioning equipment, and the processing positioning equipment needs to be placed in a suitable position so that the part to be processed is processed by the mold. The worker needs to first fix the part in the center of the constraint component 4, and then input the model number of the part into the control component 3. According to the prompts of the control component 3, the fixing component 2 is placed in the correct position on the control component 3. The slide groove 7 is approximately The vertical movement of the constraint mechanism 1 provides movement space. The movable slider 8 connects the constraint mechanism 1 and the slide 7, allowing the constraint mechanism 1 to move vertically within the slide 7. The fixing hole 9 allows the movable slider 8 to be fixed in the slide 7 with bolts after the position between the part and the mold has been adjusted. The infrared sensor 10 can detect the processing position of the part during processing. The infrared sensor 10 emits an infrared beam from its infrared emitter towards the processing position of both the mold and the part. After the infrared beam comes into contact with the object, it is reflected and received by the sensing device on the infrared sensor 10. If the two are not in a perpendicular position, the sensing device will automatically send a signal to the alarm light 15, causing the alarm light 15 to illuminate. The infrared sensor, model HC-SR501, transmits the mold position data to the control component 3 before part processing. This allows the control component 3 to immediately alert the worker to adjust the part's position, minimizing deviation. The fixed bracket 11 securely places the fixed component 2 onto the control component 3. During processing, if the fixed component 2 is not securely fixed and slips, the deviation in part processing position will be reduced. A movable slider 8 is placed on the side of the slide 7, and a fixing hole 9 is drilled in the side wall of the slide 7. The infrared sensor 10 is bolted to the top of the slide 7. The slide 7 and the fixed bracket 11 are threaded together. After the worker fixes the part in the center of the constraint mechanism 1...The distance between the part and the mold needs to be adjusted by adjusting the position of the movable slider 8 in the slide 7. After the distance between the part and the mold is determined, the worker needs to fix the movable slider 8 through the fixing hole 9, and then move the fixing component 2 according to the prompt of the control component 3. The connecting crank 16 provides space for the extension and retraction of the telescopic rod 17. The telescopic rod 17 can extend and retract according to the size of the part to ensure that the part to be processed can be firmly clamped. The telescopic hole 18 can be used to fix the connecting crank 16 and the telescopic rod 17 with bolts after the part is determined to ensure that the part will not loosen during processing. The telescopic rod 17 is installed on the side of the connecting crank 16, and the telescopic hole 18 is drilled in the side wall of the connecting crank 16. When fixing the part, the worker needs to place the part in the middle of the constraint component 4 and adjust the distance between the connecting crank 16 and the telescopic rod 17 according to the size of the part. When the part can be firmly fixed in the center of the constraint component 4, the worker can use bolts to fix the connecting crank 16 through the control component 4. The telescopic hole 18 on the side wall of the 16th section secures the telescopic rod 17 and the connecting bend 16. The support leg 19 supports the fixed support 11. The stress sensor 20 senses the position of the fixed support 11 on the control component 3. The stress sensing head on the stress sensor 20 transmits the sensed pressure value to the stress sensor 20. The stress sensor 20 transmits the data to the human-machine interface 13. The stress sensor 20 is equipped with a positioning device. The stress sensor 20 is model TS61-320A. Based on the stress value transmitted from the stress sensor, the weight of the part is calculated, and the risk of the part falling is assessed. The position of the stress sensor is also transmitted to the display screen on the control component 3, allowing workers to quickly adjust the position of the fixed support 11. The threaded connector 21 connects the fixed support 11 and the slide 7. The stress sensor 20 is bolted to the side of the support leg 19, and the threaded connector 21 is bolted to the top of the support leg 19. Example

[0020] Based on Example 1, the solution in Example 1 will be further described in detail below with reference to the specific working method, such as... Figures 1 to 4 As shown below, see details:

[0021] In a preferred embodiment, the control component 3 includes a worktable 12, a human-machine interface 13, a display 14, and an alarm light 15. The worktable 12 provides space for the placement and adjustment of the fixed component 2. The human-machine interface 13 allows input of the model number of the part to be processed, so that the position adjustment of the fixed component 2 is displayed on the display 14, allowing workers to adjust the position between the part and the mold more efficiently and accurately. The alarm light 15 can provide an early warning of the part's processing position during processing. The human-machine interface 13 is bolted to the top of the worktable 12, and the display 14 is bolted to the top of the human-machine interface 13. The alarm light 15 is placed on the side of the human-machine interface 13. When moving the fixed component 2, the worker needs to input the model number of the part into the control component 3 through the human-machine interface 13 and adjust the position of the fixed component 2 on the worktable 12 according to the prompts on the display screen.

[0022] The working process of this utility model is as follows: The constraint mechanism 1 can fix the part so that the part will not shift during the processing, and can adjust the distance between the part and the mold so that the part can be placed in the position that the mold can process. The fixing component 2 can fix the constraint mechanism 1 on the worktable 12 and move the constraint mechanism 1 on the worktable 12 so that the processing mold and the part are aligned. The fixing component 2 includes a slide 7, a sliding block 8, a fixing hole 9, an infrared sensor 10 and a fixing bracket 11. The slide 7 provides the moving space for the constraint mechanism 1 to move up and down. The sliding block 8 connects the constraint mechanism 1 and the slide 7 and allows the constraint mechanism 1 to move up and down in the slide 7. After the position between the part and the mold is adjusted, the fixing hole 9 can fix the sliding block 8 in the slide 7 with bolts. The infrared sensor 10 can detect the position of the part during processing to ensure that the position of the part does not change during processing. If the position changes, the infrared sensor 10 will transmit the offset data to the control component 3 so that the control component 3 can remind the worker to adjust the position of the part as soon as possible to minimize the deviation of the part.

[0023] The fixed bracket 11 can firmly place the fixed component 2 on the control component 3. The fixed bracket 11 includes a bracket leg 19, a stress sensor 20, and a threaded joint 21. The bracket leg 19 supports the fixed bracket 11. The stress sensor 20 can sense the position of the fixed bracket 11 on the control component 3 and transmit the position to the display screen on the control component 3, so that the worker can quickly adjust the position of the fixed bracket 11. The threaded joint 21 can connect the fixed bracket 11 and the slide 7 with threads. The stress sensor 20 is installed on the side of the bracket leg 19 by bolts, and the threaded joint 21 is installed on the top of the bracket leg 19 by bolts. The fixed bracket 11 will reduce the displacement of the part processing position if the fixed component 2 is not firmly fixed and slips during the processing process.

[0024] A movable slider 8 is placed on the side of the slide 7, and a fixing hole 9 is drilled in the side wall of the slide 7. An infrared sensor 10 is installed on the top of the slide 7 by bolts. The slide 7 and the fixed bracket 11 are connected by threads. The control component 3 can automatically remind the worker to adjust the position of the fixed component 2 according to the size of the part, and can also provide an early warning effect on the positional relationship between the mold and the part. The fixed component 2 is installed on the side of the constraint mechanism 1, and the control component 3 is placed below the fixed component 2. The control component 3 includes a worktable 12, a human-machine interface 13, a display 14, and an alarm light 15. The worktable 12 provides space for the placement and adjustment of the fixed component 2. The human-machine interface 13 can input the model of the part to be processed, so that the position adjustment of the fixed component 2 is displayed on the display 14, allowing the worker to adjust the position between the part and the mold more efficiently and accurately.

[0025] The alarm light 15 serves as an early warning of the part's machining position during processing. A human-machine interface 13 is bolted to the top of the workbench 12, and a display 14 is bolted to the top of the interface 13. The alarm light 15 is placed on the side of the interface 13. The constraint mechanism 1 includes a constraint component 4, an anti-slip plate 5, and a connecting plate 6. The constraint mechanism 41 can fix the part. The constraint component 4 includes a connecting bend 16, a telescopic rod 17, and a telescopic hole 18. The connecting bend 16 provides space for the telescopic rod 17 to extend and retract, allowing the telescopic rod 17 to extend and retract according to the part's dimensions, ensuring a firm grip on the part to be processed. The telescopic hole 18 allows the part to be positioned correctly before machining. Then, the connecting bend 16 and the telescopic rod 17 are fixed together with bolts to ensure that the parts will not loosen during processing. The telescopic rod 17 is installed on the side of the connecting bend 16, and the telescopic hole 18 is drilled in the side wall of the connecting bend 16. The anti-slip plate 5 can prevent the parts from falling due to low friction after being fixed by the constraint component 4. The connecting plate 6 can connect the constraint component 4 and the fixing component 2. The anti-slip plate 5 is installed on the side of the constraint component 4 with bolts, and the connecting plate 6 is installed on the side of the constraint component 4 away from the anti-slip plate 5 with bolts. Before the worker processes the parts, the parts need to be placed on the processing positioning equipment, and the processing positioning equipment needs to be placed in a suitable place so that the part to be processed is processed by the mold.

[0026] The worker needs to place the part in the middle of the constraint assembly 4 and adjust the distance between the connecting bend 16 and the telescopic rod 17 according to the size of the part. When the part can be firmly fixed in the center of the constraint assembly 4, the worker can use bolts to fix the telescopic rod 17 and the connecting bend 16 through the telescopic hole 18 on the side wall of the connecting bend 16. Then, the distance between the part and the mold is adjusted. After the distance between the part and the mold is determined, the worker needs to fix the moving slider 8 through the fixing hole 9. When moving the fixing assembly 2, the worker needs to input the part model into the control assembly 3 through the human-machine interface 13 and adjust the position of the fixing assembly 2 on the worktable 12 according to the prompts on the display screen. The above is the working principle of this easy-to-install stainless steel processing positioning equipment.

Claims

1. A stainless steel processing positioning device that is easy to install, comprising a constraint mechanism (1), a fixing component (2), and a control component (3), characterized in that: The restraint mechanism (1) has a fixing component (2) installed on its side, and a control component (3) installed below the fixing component (2). The restraint mechanism (1) includes a restraint component (4), an anti-slip plate (5), and a connecting plate (6). The restraint component (4) has an anti-slip plate (5) installed on its side, and a connecting plate (6) is installed on the side of the restraint component (4) away from the anti-slip plate (5). The fixing component (2) includes a slide groove (7), a movable slider (8), a fixing hole (9), an infrared sensor (10), and a fixing bracket (11). The slide groove (7) has a movable slider (8) placed on its side, and a fixing hole is carved into the side wall of the slide groove (7). The constraint assembly (4) includes a connecting bend (16), a telescopic rod (17) and a telescopic hole (18), and the side of the connecting bend (16) is equipped with a telescopic rod (17), and the side wall of the connecting bend (16) is drilled with a telescopic hole (18). The fixed bracket (11) includes a bracket leg (19), a stress sensor (20) and a threaded joint (21), and the side of the bracket leg (19) is equipped with a stress sensor (20), and the top of the bracket leg (19) is equipped with a threaded joint (21).

2. The stainless steel processing positioning equipment that is easy to install according to claim 1, characterized in that: The control component (3) includes a workbench (12), a human-machine interface (13), a display (14) and an alarm light (15). The human-machine interface (13) is installed on the top of the workbench (12), the display (14) is installed above the human-machine interface (13), and the alarm light (15) is placed on the side of the human-machine interface (13).

Images