Feeding mechanism of numerical control lathe
By designing the loading mechanism of CNC lathes and adopting automated handling and negative pressure fixing technology, the problems of inefficiency and safety risks during loading and unloading of CNC lathes are solved, and the precise handling and fixing of parts are achieved, and the processing quality and safety are improved.
Patent Information
- Application Number
- CN202421503401.4
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2024-06-28
- Publication Date
- 2025-07-08
- Estimated Expiration
- 2034-06-28
AI Technical Summary
The loading and unloading process of CNC lathes relies on manual operations, which is inefficient and has safety risks.
A feeding mechanism for CNC lathes is designed, using components such as conveying vertical and horizontal screw modules, lifting hydraulic push rods, concave negative pressure blocks and negative pressure pumps to realize automatic handling and tight fixing of parts, and precisely positioning and fixing using negative pressure technology and magnetic conduction.
It improves the degree of automation of loading and unloading process, ensures accurate handling and positioning of parts, reduces manual operations, avoids fixture damage, improves safety and processing quality, and reduces energy consumption.
Smart Images

Figure CN223070454U_ABST
Abstract
Description
Technical Field
[0001] The utility model relates to the technical field of CNC lathes, and particularly relates to a loading mechanism of a CNC lathe. Background Art
[0002] CNC lathes, also known as CNC turning machines, are outstanding representatives in the field of industrial manufacturing. Based on traditional lathes, they incorporate advanced automated control systems, endowing them with the ability of automatic processing, and becoming a processing equipment with both high efficiency and high precision. In the processing process of CNC lathes, a pre-programmed processing and forming program is indispensable, which ensures that the equipment can accurately and automatically process the parts to be machined.
[0003] However, in the operation process of CNC lathes, there is also an important link - the loading and unloading of parts. This step refers to accurately placing the parts to be machined on the lathe and safely removing the finished parts after processing. In the traditional working mode, this link usually relies on manual labor, which not only requires workers to have rich experience and skills, but also faces the problems of low work efficiency and potential safety risks, such as the equipment may accidentally injure workers.
[0004] With the continuous development of the manufacturing industry, optimizing the loading and unloading process of CNC lathes, improving production efficiency and ensuring worker safety have become important topics in the industry. In view of this, in-depth research on the above problems has led to the generation of this case. Content of the Utility Model
[0005] To achieve the above objectives, the utility model is realized through the following technical solutions: a loading mechanism of a CNC lathe, comprising: a plurality of CNC lathes, a transporter, a handling support, and a plurality of handling and loading structures, wherein the handling support is installed on the plurality of CNC lathes and the transporter, and the plurality of handling and loading structures are installed on the handling support;
[0006] The handling and loading structure includes: a handling vertical and horizontal lead screw module, a handling moving plate, two pairs of lifting hydraulic push rods, a concave negative pressure block, a plurality of telescopic convex sliders, a plurality of telescopic concave slideways, a plurality of extrusion rods, a plurality of sealing rubber strips, a pair of loop sealing rubber strips, a plurality of lifting limit shafts, a negative pressure pump, an L-shaped air extraction pipe, a negative pressure valve, and a horizontal clamping assembly;
[0007] The described handling vertical and horizontal lead screw module is installed on the handling support, the handling moving plate is installed on the moving end of the handling vertical and horizontal lead screw module, two pairs of the lifting hydraulic push rods are installed on the handling moving plate in parallel, the concave negative pressure block is installed on the pushing ends of the two pairs of the lifting hydraulic push rods, several telescopic concave slideways are evenly installed on the inner side of the concave negative pressure block, several telescopic convex sliders are respectively movably inserted into the inner sides of the several telescopic concave slideways, several extrusion rods are respectively installed on the several telescopic convex sliders, several sealing rubber strips are respectively connected to the several extrusion rods, a pair of loop sealing rubber strips are respectively installed on both sides of the several extrusion rods and the several sealing rubber strips, the L-shaped air suction pipe is inserted into the concave negative pressure block, the negative pressure valve is connected to the L-shaped air suction pipe, the negative pressure pump is connected to the L-shaped air suction pipe, the horizontal clamping assembly is installed on the handling moving plate, and several lifting limit shafts are respectively movably inserted into the several telescopic convex sliders and the several telescopic concave slideways;
[0008] It should be noted that in the above, through the handling loading structure on the handling support, the parts on the transporter are transported to the numerically controlled lathe. Through the operation of the handling vertical and horizontal lead screw module on the handling structure, the handling moving plate on the moving end of the handling vertical and horizontal lead screw module is driven. Through the handling moving plate, the two pairs of lifting hydraulic push rods on it are driven to expand and contract, driving the concave negative pressure block on the pushing ends of the two pairs of lifting hydraulic push rods. Through the horizontal movement of the concave negative pressure block to above the transporter, through the expansion and contraction of the two pairs of lifting hydraulic push rods, the concave negative pressure block is driven to perform vertical lifting. At the same time, through the concave negative pressure block, several telescopic concave slideways on its inner side are driven. Through the lifting of the concave negative pressure block, first, several extrusion rods on it are lifted according to the shape of the parts, so as to drive the several extrusion rods to closely fit the parts. At the same time, through the several extrusion rods, several sealing rubber strips on them and the loop sealing rubber strips on them are driven, so as to drive the parts to be closely extruded. At the same time, the extrusion rods drive the telescopic convex sliders on them, so that the telescopic convex sliders stably lift along the inner sides of the telescopic concave slideways. At the same time, through the operation of the negative pressure pump, the air inside the concave negative pressure block is discharged through the L-shaped air suction pipe, so that negative pressure is generated inside the concave negative pressure block. Through the negative pressure, the parts are driven to be closely extruded and fixed under negative pressure, so as to drive and closely extrude according to the shapes of different parts. After close extrusion, through the negative pressure, negative pressure fixation is driven.
[0009] Preferably, the horizontal clamping assembly includes: a pair of limit telescopic lead screw modules, two pairs of height adjustment hydraulic push rods, a pair of circular ring sleeve blocks, a pair of extrusion electromagnets, a pair of conduction metal rings, several conduction metal rods, several convex extrusion blocks, several arc extrusion blocks, several extrusion magnets and several extrusion balls;
[0010] A pair of the limiting telescopic lead screw modules are respectively installed on both sides of the handling moving plate. Two pairs of the height-adjusting hydraulic push rods are respectively installed on the moving ends of a pair of the limiting telescopic lead screw modules. A pair of the circular ring sleeve blocks are installed on the pushing ends of two pairs of the height-adjusting hydraulic push rods. A pair of the circular ring conducting metal rings are respectively inserted into a pair of the circular ring sleeve blocks. A pair of the extrusion electromagnets are respectively installed on a pair of the conducting metal rings. A plurality of convex-shaped telescopic grooves are respectively formed on a pair of the circular ring sleeve blocks. A plurality of the convex-shaped extrusion blocks are respectively movably inserted into the inner sides of a plurality of the convex-shaped telescopic grooves. A plurality of telescopic conducting metal rods are respectively connected to a pair of the conducting metal ring blocks, and a plurality of the telescopic conducting metal rods are respectively connected to a plurality of the convex-shaped telescopic grooves. A plurality of the extrusion magnets are respectively installed on a plurality of the convex-shaped extrusion blocks. A plurality of the arc-shaped extrusion blocks are respectively installed on a plurality of the convex-shaped extrusion blocks. A plurality of the extrusion balls are respectively movably inserted into a plurality of the arc-shaped extrusion blocks;
[0011] It should be noted that in the above, through the operation of a pair of limiting telescopic lead screw modules, a pair of height-adjusting hydraulic push rods on them are respectively driven to expand and contract, and a pair of circular ring sleeve blocks on them are respectively driven, so as to sleeve a pair of circular ring sleeve blocks on both sides of the component. At the same time, by energizing a pair of extrusion electromagnets, the magnetism is conducted through a pair of conducting metal rings. At the same time, the magnetism is transmitted to a plurality of conducting metal rods through a pair of conducting metal rings. The magnetism is transmitted to the extrusion magnets on a plurality of convex-shaped extrusion blocks through a plurality of conducting metal rods. A plurality of convex-shaped extrusion blocks are respectively driven by a plurality of the extrusion magnets on them. A plurality of arc-shaped extrusion blocks are respectively driven by a plurality of the convex-shaped extrusion blocks on them. A plurality of extrusion balls are respectively driven by a plurality of the arc-shaped extrusion blocks on them. The component is squeezed and limited and fixed by a plurality of the extrusion balls.
[0012] Preferably, scanning cameras are respectively arranged on a plurality of the handling moving plates.
[0013] Preferably, infrared distance measuring instruments are respectively arranged on a plurality of the handling moving plates.
[0014] Preferably, pressure sensors are respectively arranged inside a plurality of the concave-shaped negative pressure blocks.
[0015] Preferably, sleeve springs are respectively arranged on a plurality of the lifting limiting shafts.
[0016] Beneficial effects
[0017] The present utility model provides a loading mechanism for a numerical control lathe. It has the following beneficial effects: For the loading mechanism of the numerical control lathe, the entire handling and fixing process is highly automated, reducing the need for manual operation, thereby improving work efficiency; through the precise operation of the handling crosswise lead screw module and the limit telescopic lead screw module, accurate handling and positioning of components are achieved; by using the handling crosswise lead screw module and the limit telescopic lead screw module, precise position control of components during handling and fixing can be ensured, providing a reliable premise for subsequent numerical control machining; through the crosswise movement of the concave negative pressure block and the telescopic movement of the lifting hydraulic push rod, the system can tightly squeeze and fix according to different component shapes; this flexibility enables the system to adapt to various components with different shapes and sizes; the telescopic convex slider stably lifts along the inner side of the telescopic concave slideway, ensuring the stability of components during handling and fixing. At the same time, the negative pressure generated by the operation of the negative pressure pump further enhances the reliability of component fixing; the components are tightly squeezed and fixed by negative pressure, avoiding the clamping marks or damages that may be caused by traditional fixtures, improving the safety and machining quality of components; the entire system has a clear structure, is easy to operate, and is also easy to maintain and service, reducing the use cost; fixing is carried out by the negative pressure generated by the operation of the negative pressure pump. Compared with traditional fixtures, no additional energy input is required, achieving energy conservation and environmental protection. BRIEF DESCRIPTION OF THE DRAWINGS
[0018] Figure 1 FIG. is a front sectional view schematic diagram of the loading mechanism for the numerical control lathe described in the present utility model.
[0019] Figure 2 is Figure 1 a partial enlarged view of "A" in
[0020] Figure 3 is Figure 1 a partial enlarged view of "B" in
[0021] In the figure: 1, transporter; 2, handling support; 3, handling crosswise lead screw module; 4, handling moving plate; 5, lifting hydraulic push rod; 6, concave negative pressure block; 7, telescopic convex slider; 8, telescopic concave slideway; 9, extrusion rod; 10, sealing strip; 11, return-shaped sealing strip; 12, lifting limit shaft; 13, negative pressure pump; 14, L-shaped air extraction pipe; 15, negative pressure valve; 16, limit telescopic lead screw module; 17, height adjustment hydraulic push rod; 18, circular ring sleeve block; 19, extrusion electromagnet; 20, conduction metal ring; 21, conduction metal rod; 22, convex extrusion block; 23, arc extrusion block; 24, extrusion magnet; 25, extrusion ball. DETAILED DESCRIPTION OF THE EMBODIMENTS
[0022] Based on the embodiments of the present utility model, all other embodiments obtained by those of ordinary skill in the art without creative efforts shall fall within the protection scope of the present utility model.
[0023] Through those skilled in the art, all the electrical components in this case are connected to their adapted power supplies through wires, and appropriate controllers and encoders should be selected according to the actual situation to meet the control requirements. For the specific connection and control sequence, reference should be made to the sequence of operations among the electrical components in the following working principle to complete the electrical connection. The detailed connection means are well-known techniques in the art. The following mainly introduces the working principle and process, and no further description of the electrical control will be given.
[0024] Embodiment
[0025] The following specifically describes the present novel in conjunction with the accompanying drawings, as Figures 1-3As shown, the handling bracket 2 is installed on several of the numerically controlled lathes and the transporter 1, and several of the handling and loading structures are installed on the handling bracket 2; the handling and loading structure includes: a handling horizontal and vertical lead screw module 3, a handling moving plate 4, two pairs of lifting hydraulic push rods 5, a concave negative pressure block 6, several telescopic convex sliders 7, several telescopic concave slideways 8, several extrusion rods 9, several sealing rubber strips 10, a pair of loop sealing rubber strips 11, several lifting limit shafts 12, a negative pressure pump 13, an L-shaped air extraction pipe 14, a negative pressure valve 15, and a horizontal clamping assembly; the handling horizontal and vertical lead screw module 3 is installed on the handling bracket 2, the handling moving plate 4 is installed on the moving end of the handling horizontal and vertical lead screw module 3, two pairs of the lifting hydraulic push rods 5 are installed in parallel on the handling moving plate 4, the concave negative pressure block 6 is installed on the pushing ends of two pairs of the lifting hydraulic push rods 5, several of the telescopic concave slideways 8 are evenly installed inside the concave negative pressure block 6, several of the telescopic convex sliders 7 are respectively movably inserted inside several of the telescopic concave slideways 8, several of the extrusion rods 9 are respectively installed on several of the telescopic convex sliders 7, several of the sealing rubber strips 10 are respectively connected to several of the extrusion rods 9, a pair of the loop sealing rubber strips 11 are respectively installed on both sides of several of the extrusion rods 9 and several of the sealing rubber strips 10, the L-shaped air extraction pipe 14 is inserted into the concave negative pressure block 6, the negative pressure valve 15 is connected to the L-shaped air extraction pipe 14, the negative pressure pump 13 is connected to the L-shaped air extraction pipe, the horizontal clamping assembly is installed on the handling moving plate 4, and several of the lifting limit shafts 12 are respectively movably inserted into several of the telescopic convex sliders 7 and several of the telescopic concave slideways 8; the horizontal clamping assembly includes: a pair of limit telescopic lead screw modules 16, two pairs of height adjustment hydraulic push rods 17, a pair of circular ring sleeve blocks 18, a pair of extrusion electromagnets 19, a pair of conduction metal rings 20, several conduction metal rods 21, several convex extrusion blocks 22, several arc extrusion blocks 23, several extrusion magnets 24, and several extrusion balls 25;A pair of the limiting telescopic lead screw modules 16 are respectively installed on both sides of the handling moving plate 4. Two pairs of the height-adjusting hydraulic push rods 17 are respectively installed on the moving ends of a pair of the limiting telescopic lead screw modules 16. A pair of the circular ring sleeve blocks are installed on the pushing ends of two pairs of the height-adjusting hydraulic push rods 17. A pair of the circular ring conduction metal rings 20 are respectively inserted into a pair of the circular ring sleeve blocks 18. A pair of the extrusion electromagnets 19 are respectively installed on a pair of the conduction metal rings 20. A plurality of convex telescopic grooves are respectively formed on a pair of the circular ring sleeve blocks 18. A plurality of the convex extrusion blocks 22 are respectively movably inserted into the inner sides of the plurality of the convex telescopic grooves. A plurality of telescopic conduction metal rods 21 are respectively connected to a pair of the conduction metal ring blocks 20, and a plurality of the telescopic conduction metal rods 21 are respectively connected to the plurality of the convex telescopic grooves. A plurality of the extrusion magnets 24 are respectively installed on the plurality of the convex extrusion blocks 22. A plurality of the arc extrusion blocks 23 are respectively installed on the plurality of the convex extrusion blocks 22. A plurality of the extrusion balls 25 are respectively movably inserted into the plurality of the arc extrusion blocks 23; A plurality of scanning cameras are respectively arranged on the plurality of the handling moving plates 4; A plurality of infrared rangefinders are respectively arranged on the plurality of the handling moving plates 4; Pressure sensors are respectively arranged on the inner sides of the plurality of concave negative pressure blocks 6; Sleeve springs are respectively arranged on the plurality of lifting limiting shafts 12.;
[0026] According to the attached Figures 1-3It is concluded that the components on the transporter 1 are transported to the CNC lathe through the handling and loading structure on the handling support 2. The handling vertical and horizontal lead screw module 3 on the handling structure operates, driving the handling moving plate 4 on the mobile end of the handling vertical and horizontal lead screw module 3. The handling moving plate 4 drives the telescopic movement of the two pairs of lifting hydraulic push rods 5 thereon, driving the concave negative pressure block 6 at the pushing end of the two pairs of lifting hydraulic push rods 5. Through the vertical and horizontal movement of the concave negative pressure block 6 above the transporter 1, the telescopic movement of the two pairs of lifting hydraulic push rods 5 drives the concave negative pressure block 6 to perform vertical lifting. At the same time, through the concave negative pressure block 6, a number of telescopic concave slideways 8 inside it are driven. When the concave negative pressure block 6 lifts, the number of pressing rods 9 thereon is first lifted according to the shape of the component, thereby driving the number of pressing rods 9 to closely fit the component. At the same time, through the number of pressing rods 9, a number of sealing rubber strips 10 thereon and the loop sealing rubber strips 11 thereon are driven, thereby driving the component to be closely pressed. At the same time, the pressing rod 9 drives the telescopic convex slider 7 thereon, so that the telescopic convex slider 7 stably lifts along the inside of the telescopic concave slideway 8. At the same time, through the operation of the negative pressure pump 13, the air inside the concave negative pressure block 6 is discharged through the L-shaped air extraction pipe 14, causing negative pressure inside the concave negative pressure block 6. Through the negative pressure, the component is driven to be closely pressed and fixed under negative pressure, and thus driven to be closely pressed according to the shapes of different components. After close pressing, through the negative pressure, the negative pressure fixation is driven; through the operation of a pair of limit telescopic lead screw modules 16, the telescopic movement of a pair of height adjustment hydraulic push rods 17 thereon is respectively driven, and a pair of circular ring sleeve blocks 18 thereon are respectively driven, so that the pair of circular ring sleeve blocks 18 are sleeved on both sides of the component. At the same time, through the energization of a pair of extrusion electromagnets 19, the magnetism is conducted through a pair of conduction metal rings 20. At the same time, the magnetism is transmitted to a number of conduction metal rods 21 through a pair of conduction metal rings 20. The magnetism is transmitted to the extrusion magnets 24 on a number of convex extrusion blocks 22 through a number of conduction metal rods 21. A number of convex extrusion blocks 22 are respectively driven through a number of extrusion magnets 24. A number of arc extrusion blocks 23 thereon are respectively driven through a number of convex extrusion blocks 22. A number of extrusion balls 25 thereon are respectively driven through a number of arc extrusion blocks 23, and the component is extruded and limited for fixation through a number of extrusion balls 25.
[0027] Although the embodiments of the present invention have been shown and described, for those of ordinary skill in the art, it can be understood that various changes, modifications, substitutions and variations can be made to these embodiments without departing from the principles and spirit of the present invention. The scope of the present invention is defined by the appended claims and their equivalents.
Claims
1. A loading mechanism for a numerically controlled lathe, comprising: A number of numerically controlled lathes, conveyors, handling brackets, and a number of handling and loading structures, characterized in that the handling brackets are installed on the number of numerically controlled lathes and the conveyors, and the number of handling and loading structures are installed on the handling brackets; The handling and loading structure includes: a handling vertical and horizontal lead screw module, a handling moving plate, two pairs of lifting hydraulic push rods, a concave negative pressure block, a number of telescopic convex sliders, a number of telescopic concave slideways, a number of extrusion rods, a number of sealing rubber strips, a pair of loop sealing rubber strips, a number of lifting limit shafts, a negative pressure pump, an L-shaped air extraction pipe, a negative pressure valve, and a horizontal clamping assembly; The handling vertical and horizontal lead screw module is installed on the handling bracket, the handling moving plate is installed on the moving end of the handling vertical and horizontal lead screw module, two pairs of the lifting hydraulic push rods are installed in parallel on the handling moving plate, the concave negative pressure block is installed on the pushing ends of the two pairs of lifting hydraulic push rods, a number of the telescopic concave slideways are evenly installed inside the concave negative pressure block, a number of the telescopic convex sliders are respectively movably inserted inside a number of the telescopic concave slideways, a number of the extrusion rods are respectively installed on a number of the telescopic convex sliders, a number of the sealing rubber strips are respectively connected to a number of the extrusion rods, a pair of the loop sealing rubber strips are respectively installed on both sides of a number of the extrusion rods and a number of the sealing rubber strips, the L-shaped air extraction pipe is inserted into the concave negative pressure block, the negative pressure valve is connected to the L-shaped air extraction pipe, the negative pressure pump is connected to the L-shaped air extraction pipe, the horizontal clamping assembly is installed on the handling moving plate, and a number of the lifting limit shafts are respectively movably inserted into a number of the telescopic convex sliders and a number of the telescopic concave slideways.
2. The feeding mechanism of a numerically controlled lathe according to claim 1, characterized in that, The horizontal clamping assembly includes: a pair of limit telescopic lead screw modules, two pairs of height adjustment hydraulic push rods, a pair of circular ring sleeve blocks, a pair of extrusion electromagnets, a pair of conduction metal rings, a number of conduction metal rods, a number of convex extrusion blocks, a number of arc extrusion blocks, a number of extrusion magnets, and a number of extrusion balls; A pair of the limit telescopic lead screw modules are respectively installed on both sides of the handling moving plate. Two pairs of the height adjustment hydraulic push rods are respectively installed on the moving ends of a pair of the limit telescopic lead screw modules. A pair of the circular ring sleeve blocks are installed on the pushing ends of two pairs of the height adjustment hydraulic push rods. A pair of the circular ring conduction metal rings are respectively inserted into a pair of the circular ring sleeve blocks. A pair of the extrusion electromagnets are respectively installed on a pair of the conduction metal rings. A plurality of convex telescopic grooves are respectively formed on a pair of the circular ring sleeve blocks. A plurality of the convex extrusion blocks are respectively movably inserted into the inner sides of a plurality of the convex telescopic grooves. A plurality of telescopic conduction metal rods are respectively connected to a pair of the conduction metal ring blocks, and a plurality of the telescopic conduction metal rods are respectively connected to a plurality of the convex telescopic grooves. A plurality of the extrusion magnets are respectively installed on a plurality of the convex extrusion blocks. A plurality of the arc extrusion blocks are respectively installed on a plurality of the convex extrusion blocks. A plurality of the extrusion balls are respectively movably inserted into a plurality of the arc extrusion blocks.
3. The feeding mechanism of a numerically controlled lathe according to claim 2, characterized in that, A plurality of scanning cameras are respectively arranged on a plurality of the handling moving plates.
4. The feeding mechanism of a numerically controlled lathe according to claim 3, wherein, A plurality of infrared rangefinders are respectively arranged on a plurality of the handling moving plates.
5. The loading mechanism of a numerically controlled lathe according to claim 4, characterized in that Pressure sensors are respectively arranged inside a plurality of the concave negative pressure blocks.
6. The feeding mechanism of a numerically controlled lathe according to claim 5, characterized in that, Sleeve springs are respectively arranged on a plurality of the lifting limit shafts.