Hiển thị 1–12 của 825 kết quả

Trung tâm gia công dọc

Trình diễn 9 12 18 24

USED VERTICAL MACHINING CENTER FOR SALE

Enhance precision and efficiency with our cutting-edge Vertical Machining Center. Engineered for optimal performance, our advanced technology ensures superior accuracy and speed for your machining needs. Discover seamless operations and unmatched productivity for your manufacturing processes today.

Câu hỏi thường gặp

Explore essential FAQs about Vertical Machining Centers. Learn about their versatile applications, precision capabilities, and productivity advantages. Discover insights on setup, maintenance, and compatibility with various materials. Maximize efficiency and optimize machining processes with expert guidance on selecting and utilizing Vertical Machining Centers effectively.

A VMC is a type of milling machine with a vertically oriented spindle, used for precision machining operations such as drilling, milling, and tapping.

VMCs offer superior accuracy, versatility, and efficiency in machining complex parts. Their vertical spindle design enables easier chip evacuation and allows for faster tool changes.

VMCs can handle a wide range of materials including metals, plastics, composites, and more. They are commonly used in industries such as aerospace, automotive, medical, and electronics.

Consider factors such as spindle speed, tool capacity, axis travels, workpiece size, and control system when selecting a VMC. Consult with experts to ensure the machine meets your specific requirements.

Regular maintenance tasks include cleaning, lubrication, and inspection of components such as the spindle, tool changer, and way surfaces. Follow manufacturer guidelines for optimal performance and longevity.

Yes, VMCs can be equipped with automation options such as robotic loading/unloading systems and pallet changers to increase productivity and reduce manual intervention.

Maximize efficiency by optimizing tool paths, utilizing high-speed machining techniques, and implementing advanced cutting strategies. Continuous training and staying updated with technology advancements are also crucial.

Follow all safety protocols outlined in the machine manual and ensure operators are properly trained. Use personal protective equipment (PPE), secure workpieces correctly, and implement machine guarding to prevent accidents.

The cost of a Vertical Machining Center (VMC) can vary widely depending on factors such as brand, size, features, precision levels, and additional options like automation capabilities. Entry-level VMCs may start at around $50,000 to $100,000, while high-end models with advanced features and automation can range from $200,000 to over $1 million. Customizations and add-ons can also influence the final price. It’s essential to research different manufacturers and models to find the best fit for your budget and machining requirements.

Building a Vertical Machining Center (VMC) is a complex process that requires expertise in mechanical engineering, precision machining, electronics, and automation. Here are the general steps involved in building a VMC:

  1. Design and Planning:

    • Define the specifications and requirements of the VMC, including the size, working envelope, spindle speed, tool capacity, and control system.
    • Design the structural components, such as the base, column, saddle, and table, ensuring rigidity, stability, and precision.
  2. Component Procurement:

    • Source high-quality components such as linear guides, ball screws, motors, spindle, tool changers, and control systems from reputable suppliers.
    • Ensure compatibility and reliability of components to meet the performance goals of the VMC.
  3. Manufacturing of Structural Components:

    • Fabricate the structural components using precision machining processes like milling, turning, grinding, and drilling.
    • Ensure tight tolerances and surface finishes to maintain accuracy and stability during operation.
  4. Assembly:

    • Assemble the structural components, including the base, column, saddle, table, and enclosure, following the assembly drawings and specifications.
    • Install linear guides, ball screws, motors, spindle, and other mechanical and electrical components according to the design requirements.
  5. Wiring and Electronics:

    • Wire the electrical components, including motors, sensors, limit switches, encoders, and control systems, following electrical diagrams and schematics.
    • Install servo drives, controllers, power supplies, and interface panels to enable control and communication between components.
  6. Testing and Calibration:

    • Conduct initial tests to verify the functionality of mechanical, electrical, and control systems.
    • Perform calibration and alignment procedures to ensure accurate positioning, motion control, and spindle performance.
    • Fine-tune parameters such as feed rates, spindle speeds, acceleration, and deceleration to optimize performance and efficiency.
  7. Integration of Automation Features (Optional):

    • Integrate automation features such as tool changers, pallet changers, probing systems, and coolant systems to enhance productivity and efficiency.
    • Program the control system to automate machining processes, tool changes, part inspection, and error detection.