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shandong lu young machinery co.,ltd
About Us
Your Professional & Reliable Partner.
Shandong Lu Young Machinery Co, Ltd. is established in July 1996.We are located inshandong provice.We are one of professional cnc lathe machine, cnc milling machine, bandsawing machine and swiss lathe machine manufacturer in china.We founded our fast lathemachine factory in 1996 in tengzhou City to produce center lathe and univesal milling machinefor over 20 years development,we build three factories.One is for cnc lathe production one forcnc milling production.We imported advanced production ...
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Year Established

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Million+
Employees

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Million+
Customers Served

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Million+
Annual Sales
China shandong lu young machinery co.,ltd High quality
Trust Seal, Credit Check, RoSH and Supplier Capability Assessment. company has strictly quality control system and professional test lab.
China shandong lu young machinery co.,ltd DEVELOPMENT
Internal professional design team and advanced machinery workshop. We can cooperate to develop the products you need.
China shandong lu young machinery co.,ltd MANUFACTURING
Advanced automatic machines, strictly process control system. We can manufacture all the Electrical terminals beyond your demand.
China shandong lu young machinery co.,ltd 100% SERVICE
Bulk and customized small packaging, FOB, CIF, DDU and DDP. Let us help you find the best solution for all your concerns.

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vertical milling machine cnc vmc650 5 axis metal parts processing
        The five-axis machining center processes impellers through a complex and precise process, involving the following key techniques and steps: Design and Modeling: First, a 3D model of the impeller is created using CAD software (such as UG, CATIA, or PRO/E) based on specific design requirements, including blade shapes, root designs, and any special features like deep narrow channels, large twist angles, or variable root radii. Programming: The design model is then converted into machining paths using CAD/CAM software (like UG), generating a five-axis machining program. This step involves precise tool path calculations to ensure safe and efficient contact between the tool and the impeller's surface. Tool Path Planning: Considering the impeller's complex geometry, the tool path is meticulously planned to avoid collisions between the tool and the impeller walls while maintaining accuracy and surface quality. This includes strategies for tool entry and exit, cutting angles, and feed rates. Machine Setup: The five-axis machining center is prepared, including installing the appropriate tooling, calibrating the five axes (X, Y, Z, A, C) for accuracy, and setting up an effective cooling system to ensure stable and safe machining. Processing: Under program control, the machining center executes the pre-programmed paths, precisely cutting the impeller blank through coordinated motion of the spindle and additional rotary axes. Monitoring and Adjustment: During the process, the operator closely monitors the machine's status and machining results, making real-time adjustments as needed to ensure accuracy and quality. Post-Processing and Quality Inspection: After machining, the impeller might undergo surface treatment, like painting, and undergo rigorous quality checks, including dimension accuracy, surface roughness, and dynamic balance tests, to confirm it meets design specifications. Data Optimization and Feedback: Based on the machining outcome, programming or process parameters may be optimized, creating a continuous improvement loop to enhance subsequent impeller machining efficiency and quality. Batch Production: Once the process is stable, the five-axis machining center can produce in batches, supplying high-performance, monolithic impellers for turbomachinery in the aerospace and other industries. With technological advancements, latest technologies like linear motors, torque motors, high-speed spindles, and advanced control systems are often employed to boost machining speed, accuracy, and surface finish.    
TCK56x1200 slant bed machine
Features of TCK56X1200 Turning-Milling Compound Lathe 1. Structural Design Integrated Turning & Milling: Combines CNC turning and milling in one machine, enabling complex part processing without repositioning. Large Machining Capacity: Max Turning Diameter: 560 mm Max Turning Length: 1200 mm Spindle Bore: ≥Φ80 mm (allows long bar feeding) High Rigidity Bed: Cast iron construction with optimized rib design for vibration damping and stability. 2. Precision & Performance High-Speed Spindle: Turning Spindle: 2,000–3,500 rpm (optional geared or direct-drive) Milling Spindle: 6,000–8,000 rpm (with C-axis contouring) Positioning Accuracy: ≤0.008 mm (X/Z axes) Live Tooling: Y-axis milling capability (±50 mm travel) for off-center drilling/tapping. 3. Automation & CNC Features Multi-Axis Control: Standard X, Z, C axes; optional Y-axis and B-axis for 5-sided machining. CNC System: Compatible with Siemens 828D/FANUC 0i-TF (user-programmable macros). Automatic Tool Changer (ATC): 8–12-station turret (VDI 30/40 interface). 4. Material & Application Flexibility Wide Material Range: Steel, stainless steel, aluminum, brass, and composites. Typical Parts: Flanges, shafts, valves, aerospace components. 5. Optional Configurations Tailstock: Hydraulic programmable tailstock (150 mm quill travel). Coolant System: High-pressure coolant (70 bar) for difficult-to-machine materials. Bar Feeder: Compatible with Ø20–65 mm bar feeders. 6. Safety & Maintenance Full Enclosure: Chip and coolant containment with safety interlocks.

2025

07/24

Why cnc surfacing grinding machines are more and more popular
CNC Surface Grinding Machine: Characteristics and Advantages The CNC Surface Grinding Machine is a core piece of equipment in modern precision manufacturing. Utilizing computer numerical control technology, it achieves high-precision, high-efficiency grinding of surfaces like planes, grooves, and contours. Its main characteristics and advantages are as follows: Core Characteristics High-Precision Digital Control Employs CNC systems (e.g., Siemens, Fanuc) to precisely control wheel feed rate, table movement speed, and path via programmed instructions. Positioning accuracy can reach ±0.001 mm, with repeat positioning accuracy ≤ 0.002 mm. Supports complex contour programming (e.g., angles, steps, arcs), enabling non-planar form grinding. Integrated Full Automation Functions Automatic Dressing System: Uses diamond rollers for in-process wheel dressing to maintain cutting sharpness. Automatic Measurement & Compensation: Probes detect workpiece dimensions in real-time, automatically compensating for grinding allowance. Automatic Wheel Balancing: Reduces vibration, ensuring superior surface finish (up to Ra 0.1 μm). Rigid Structure & Thermal Stability Machine bed constructed from high-rigidity cast iron (e.g., Meehanite) paired with linear guideways/hydrostatic guideways for excellent vibration resistance. Temperature-Controlled Cooling System: Maintains grinding fluid temperature (±0.5°C), minimizing thermal distortion effects on accuracy. Modular Process Expansion Optional accessories include rotary tables (multi-station machining), magnetic/vacuum chucks (preventing thin-part distortion), and high-pressure washdown systems (efficient swarf removal). Core Advantages Superior Precision & Consistency vs. Manual Machines Maintains dimensional tolerance stability within ±0.002 mm for batch production. Flatness ≤ 0.005 mm / 1000 mm. Ideal for ultra-precision applications like molds, precision bearings, and semiconductor ceramics. Significantly Enhanced Production Efficiency Unattended Continuous Production: Automated loading/unloading + programmed grinding cycles enable 24/7 operation (e.g., batch processing of automotive piston rings). Fast Changeover: Stored part programs allow quick job switching by recalling files, drastically reducing setup time. Reduced Reliance on Operator Skill Traditional grinding relies heavily on technician experience. CNC systems standardize processes through programming, minimizing human error. Breakthrough Capability for Complex Machining Completes combined surface and contour grinding in a single setup (e.g., turbine blade root slots, cutting tool edges), eliminating multiple machining steps. Optimized Total Cost of Ownership Reduces scrap rates (especially for high-value materials like carbide). Lowers labor costs by over 60% (one operator can monitor multiple machines).  

2025

07/09