活塞自动化加工一体机
The integrated automated piston processing machine, using a servo motor-driven linear motion mechanism and robotic arm, enables multi-station synchronous processing of pistons, solving the problems of low efficiency and difficulty in guaranteeing precision in traditional piston processing, and achieving efficient automated production.
Patent Information
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- LIANSHUI SIMIKE POWER MASCH CO LTD
- Filing Date
- 2025-07-30
- Publication Date
- 2026-07-17
AI Technical Summary
Traditional piston machining methods involve complex processes, require multiple clamping operations, have low machining efficiency, and make it difficult to guarantee product accuracy.
The design incorporates an automated piston processing machine with a servo motor-driven linear motion mechanism and a multi-station support frame on the slide table. This enables automated three-process machining, which is achieved through a robotic gripper. The automated machining process requires only an initial clamping and completes multiple processes simultaneously through multi-station machining.
It significantly improves processing efficiency, produces high-precision products, reduces reliance on skilled workers, and only requires general laborers to operate.
Smart Images

Figure CN224508993U_ABST
Abstract
Claims
1. A piston automatic processing all-in-one machine, characterized in that: The machine includes a linear motion mechanism (2) driven by a servo motor mounted on a base (1). Three workstations with equal intervals on the slide of the linear motion mechanism are fixed with workpiece support frames (3). Gantry frames (4) are respectively erected on both sides of the slide where the three workstations stop processing. On each gantry frame, a workpiece gripping device that drives up and down is provided directly above the support frame. On the left and right sides of each gantry frame, there are robotic arms that can drive up and down and drive left and right from the side to the middle. The front end of the robotic arm is equipped with a processing tool. The workpieces to be processed on the three workstations are processed simultaneously by different processes. The workpieces processed at the front workstation are successively received by the support frame of the rear workstation for the next round of continuous processing until the processing is completed and they are taken away.
2. The piston automated processing cell of claim 1, wherein: The first processing station's gantry (4) is equipped with a linear module 1 (61) for vertical driving and displacement. A rotating shaft 1 (81) is fixedly installed on the slider of the linear module 1 (61). A gripping head 1 (51) is installed on the rotating shaft 1 (81). Linear modules 2 (62) for vertical driving and displacement are installed on the two side gantry frames respectively. Two linear modules 3 (63) for left and right driving and displacement from the sides to the center are installed on the slides of the two linear modules 2 (62) on the sides respectively. The two linear modules 3 on the left side are... (63) The slide is equipped with mechanical left arm 1 (71) and mechanical left arm 2 (72). The slides of the two linear modules 3 (63) on the right side are equipped with mechanical right arm 1 (73) and mechanical right arm 2 (74). The front end of mechanical left arm 1 (71) is equipped with a rough outer circle cutter (90). The front end of mechanical right arm 1 (73) is equipped with a stop cutter (91). The front ends of mechanical left arm 2 (72) and mechanical right arm 2 (74) are equipped with oil hole drill bits (92). The gantry (4) of the second processing station is equipped with a linear module four (64) that drives vertical movement. The slider of the linear module four (64) is equipped with a gripping head two (52). The two gantry frames on both sides are equipped with linear modules five (65) that drive vertical movement. The slides of the two linear modules five (65) on both sides are equipped with linear modules six (66) that drive horizontal movement from the side to the middle. The slide of the left linear module six (66) is equipped with a mechanical left arm three (75). The front end of the mechanical left arm three (75) is equipped with a car ring groove and a car top surface cutter (93). The slide of the right linear module six (66) is equipped with a mechanical right arm three (76). The front end of the mechanical right arm three (76) is equipped with a fine outer circle chamfering cutter (94). The support frame (3) on the second station is installed on the rotating shaft two (82). The gantry of the third processing station is equipped with a linear module seven (67) that drives vertical movement. The slider of the linear module seven is equipped with a gripping head three (53). On both sides of the linear motion mechanism, linear modules eight (68) that drive horizontal movement from the side to the center are installed. The two gantry frames are respectively installed on the slides of the linear modules eight (68). The two gantry frames are respectively equipped with linear modules nine (69) that drive vertical movement. The slide of the left linear module nine (69) is equipped with a mechanical left arm four (77). The front end of the mechanical left arm four (77) is equipped with a rough boring tool (95). The slide of the right linear module nine (69) is equipped with a mechanical right arm four (78) and a mechanical right arm five (79). The front end of the mechanical right arm four (78) is equipped with a retaining ring groove and an inner and outer chamfering cutter (96). The front end of the mechanical right arm five (79) is equipped with a fine boring cutter (97). The support frame (3) on the third station is installed on the rotating shaft three (83).
3. The piston automated processing cell of claim 2, wherein: The gantry frame of the third processing position includes two gantry vertical frames (41) and a linear module ten (60) extending outward on a slide table mounted on a linear motion mechanism. The linear module seven (67) is fixed on the slide table of the linear module ten (60).
4. The piston automated processing cell of claim 2, wherein: The gantry frame of the first processing station and the gantry frame of the second processing station are shared. The workpiece gripping device, linear module and robotic arm of the first processing station and the second processing station are respectively installed on the front and rear sides of the gantry frame.
5. The piston automated processing cell of claim 1, wherein: Air blowing pipes are installed next to the three workstations where processing takes place.
6. The piston automated processing cell of claim 3, wherein: The piston automated processing integrated machine is equipped with an outer cover. A loading door is opened on the cover at the rear end of the linear motion mechanism, a feeding door is opened on the cover at position seven of the linear module, and glass observation windows are opened on the other four sides of the cover.
7. The piston automated process integrator of claim 1, wherein: The linear motion mechanism and linear module are equipped with protective covers.