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VMC Machining Center 966

VMC Machining Center 966

Vertical Machining Centers, also known as Vertical Milling Machines, create holes in flat parts. The VMC technology is favored when three-axis work is done on a single face, such as in-mold and die works. Multiple adjustments are available on VMCs. For example, on the worktable, there are numerous angles of approach and rotating and other positioning devices. The incorporated computerized controls enable automation, repeatability, tool selection/change, and contour control. These new CNC machines raised the productivity of the “milling” machine to unprecedented heights, giving rise to the term VMC (Vertical Machining Center).

Dalian Second Machine CNC Equipment Group Co., Ltd: Your Professional VMC Machining Center 966 Manufacturer!

 

 

We are a high-tech company specializing in the design, development, production, and sales of 5-axis CNC machining centers, 5-axis gantry machining centers, CNC inclined lathe production lines, and supporting production equipment. Currently, our company has approximately 300 employees, including a research and development team of about 20 and approximately 40 senior engineers. With the support of German technology, our products excel in high speed, efficiency, and precision. By using high-torque frameless direct drive motors, the A/C axis's structural design is more compact, integrating the motor rotor with the turntable rotation mechanism to significantly enhance transmission rigidity. We also equip with high-resolution circular grating encoders to ensure the turntable's transmission accuracy and stability. Considering industrial design elements and human-machine interaction, our products have an attractive appearance and reasonable operation layout, greatly improving the user experience.

 

Our Service
Fully understand customer needs, stand in the customer's position to truly recommend customers, customers demand products, as far as possible to reduce cost input for customers, so that customers maximize benefits.

 

Our Certificate
We have ISO9001, Advanced Work Unit Honor, and many patents.

 

Leading Technology
The company has a professional R&D team, dedicated to the technological innovation and upgrading of machine tools, to ensure that the products always maintain the leading position in the industry.

 

Reliable Quality
The company strictly abides by the product quality concept of "manufacturing excellent products and abiding by the quality assurance" to ensure that every machine tool that leaves the factory meets the high standard of quality requirements.

 

 
Related Product Introduction

 

4 Axis Cnc Vertical Machining Center VMC550

4 Axis Cnc Vertical Machining Center VMC550

4 axis machining implies that a workpiece is processed in the same way it would be with a 3 axis machine, but has an additional rotary movement around the X axis, which is named the A axis. This rotation allows the workpiece to be cut around the B axis. This method is beneficial when holes or cuts need to be made on the sides of a workpiece. The addition of a fourth axis (A axis) allows a workpiece to be automatically flipped over, so the machine can remove material from both sides.

CNC Milling Machine 3 Axis VMC1260

CNC Milling Machine 3 Axis VMC1260

3-axis CNC machining evolved from rotary filing. With a 3-axis CNC machine, the workpiece is stationary while the cutting tool moves across the X-, Y-, and Z-axes. The X-axis (vertical axis) is left to right along the lathe table, the Y-axis (horizontal axis) is from front to back of the table, and the spindle that drops from the top marks the Z-axis (depth). A standard 3-axis CNC milling machine has a table that moves the part to provide one or two planes of movement and a tool that provides the other one or two planes of movement. 3-axis machines are ideal for simple tasks that don't require intricate detailing or depth. As such, it is one of the most preferred techniques for creating mechanical parts for automation.

VMC127 Heavy-duty Machining Center

VMC1275 Heavy-duty Machining Center

Heavy-duty machining centers are large, high-precision CNC machine tools designed for processing large, heavy components. They feature gantry structures combined with advanced CNC systems and drive components to achieve high precision and efficiency. Primarily used for fabricating large, continuous, heavy steel structures involving multiple welded or connected plates to create extensive structural parts. Specialized equipment is required for processing, handling, and lifting these workpieces.

CNC Millling Machining Center VMC857

CNC Millling Machining Center VMC857

CNC Milling Machines are machine-operated cutting tools that are programmed and managed by Computer Numerical Control (CNC) systems to accurately remove materials from a workpiece. The result of the machining process is a specific part or product that is created using Computer Aided Design (CAD) software.

High Speed Milling Machine Vmc850 855 1050 SYNTEC FANUC System

High Speed Milling Machine Vmc850 855 1050 SYNTEC FANUC System

A process that combines lighter milling passes with high spindle speeds and high feed rates to achieve a very high metal-removal rate, high-speed machining helps reduce cycle time, increase tool life and increase shop productivity.

6032Processing Center GantryOptional

6032Processing Center GantryOptional

High rigidity and thick beam structure, effectively improve the shape of the rail cross-step beam, increase the distance, provide the best axis movement of the y axis True straightness and heavy cutting rigidity.

 

What is VMC Machining Center 966
 

Vertical Machining Centers, also known as Vertical Milling Machines, create holes in flat parts. The VMC technology is favored when three-axis work is done on a single face, such as in-mold and die works. Multiple adjustments are available on VMCs. For example, on the worktable, there are numerous angles of approach and rotating and other positioning devices. The incorporated computerized controls enable automation, repeatability, tool selection/change, and contour control. These new CNC machines raised the productivity of the "milling" machine to unprecedented heights, giving rise to the term VMC (Vertical Machining Center).

 

Applications of VMC Machining Center 966

Precision Machining
Precision machining activities are primarily found in the defence, energy, and electronics sectors. In this respect, VMCs perform a wide array of challenging tasks involved in high-volume manufacturing, small-batch production, and prototyping. These tools dexterously deal with diversified machining challenges while maintaining high-quality performance and versatility. They can also handle complex and intricate parts with tight tolerances, which is why precision component manufacturers prefer these machining tools so much.

 

Fabrication Of Medical Devices
Quality and precision are the two strongest pillars of the modern-day medical device-making industry; thus, these two factors cannot be compromised. Here comes the actual role of the vertical machining centre. Complex components like prosthetic devices, surgical instruments, and orthopedic implants can be dealt with only by these advanced machining tools. Since VMCs can work with different materials, including titanium and stainless steel, they are treated as the most suitable option for fabricating medical devices.

 

Automotive Manufacturing
There is no automotive part manufacturing unit today that does not know what is VMC machine. The recent automotive industry has involved extensive VMCs to facilitate the manufacture of auto components like brake systems, chassis parts, transmission components, engine blocks, and others. Due to this tool's versatility, production processes can be effectively streamlined, maintaining a perfect competitive stand.

 

Aerospace Industry
The significance of VMC tools in this specific industry is relatively high primarily because of their unbelievable precision, efficiency, versatility, and reliability. These tools manufacture different complex components like structural components, engine parts, and aircraft frames. They help meet the aerospace industry's stringent rules and standards, especially while machining materials such as composites, titanium, and aluminium.

 

Mold Making
Mold making procedures usually involve the making of molds utilized in die casting, injection molding, plastic injection molding and other relevant manufacturing processes. Mold-making cannot be completed without milling precise contours and cavities. In this respect, VMCs play the most significant role.

 

Die Making
Die-making industries also extensively use VMCs to make dies, which are utilized chiefly for metal stamping. Die components, especially inserts, dies, and punches, are accurately machined, maintaining acute precision. These components are used for metal forming procedures.

 

Rapid Tooling And Prototyping
Rapid tooling and prototyping applications often need quick adjustments and iterations facilitated by only VMC tools. With the help of these unique machining tools, manufacturers can now enjoy the advantages of making cost-effective tooling and prototype components.

 

3d Manufacturing
VMCs with high-end 5-axis, 4-axis, and 3-axis proficiencies can efficiently perform complicated 3D machining applications. The tools handle engraving, sculpting, and contouring tasks needed in the jewelry and art manufacturing industries.

 

Advantages of VMC Machining Center 966

 

Operator-Friendly

VMC has a mind-blowing structural design that can be easily used by the operators without any hassle. This is how the milling process smoothly goes on without inviting any accidents or errors. On the other hand, the automated technology of this tool also saves a lot of time. Simple programming has been used; thus, anybody can adjust the setting to suit their convenience and requirements.

Versatility

Currently, VMC is used in multiple industries for diversified applications, which is why it is treated as a versatile industrial tool. Some of the critical applications of this tool are contouring, tapping, drilling, milling, and other relevant tasks in the manufacturing industry.

Automated Integration

VMC machines have been equipped with high-end robotic systems, which allow faster task completion. Their operation is also so easy and flexible that operators with little technical knowledge can handle them. To increase uptime, automated production runs, light-out machining, and other related robotic applications are performed.

Industry Adaptability

With the advancement of technology, the manufacturing industry has undergone a technical transition with the 4.0 version. VMC tools are so flexible that they have adapted the recent version smoothly. They have specialized automated technology with the help of which they can adapt all the upcoming versions automatically without any manual assistance. These tools have recently incorporated a few unique characteristics, including Predictive maintenance, data analytics, and IoT connectivity features. These elements are used to monitor real-time machine performance, optimize machining procedures, and proactively handle maintenance scheduling, ensuring greater quality and efficiency.

 

Spindle Types in VMC Machining Center 966
VMC Machining Center 966

● Belt-Driven Spindles
Features: Utilizes a belt and pulley system to transfer power from the motor to the spindle.
Advantages: Lower cost, easy maintenance, and flexibility in speed range.
Disadvantages: Potential for belt slippage and lower precision at high speeds.

 

● Direct-Drive Spindles
Features: The spindle is directly connected to the motor, eliminating the need for belts or gears.
Advantages: Higher precision, better torque control, and reduced vibration.
Disadvantages: More expensive and can be more complex to repair.

 

● Gear-Driven Spindles
Features: Uses gears to transfer power from the motor to the spindle.
Advantages: High torque at low speeds, suitable for heavy-duty cutting.
Disadvantages: More noise and vibration, the potential for gear wear over time.

 

● Motorized (Built-In) Spindles
Features: The motor is integrated into the spindle unit, providing a compact and efficient design.
Advantages: High precision, reduced maintenance, and efficient cooling.
Disadvantages: Higher initial cost and potential complexity in repairs.

● High-Speed Spindles
Features: Designed to operate at very high speeds, often using air bearings or ceramic bearings.
Advantages: Ideal for fine machining and applications requiring high surface finish quality.
Disadvantages: Limited torque at low speeds and higher cost.

 

● Low-Speed High-Torque Spindles
Features: Specifically designed to provide high torque at low speeds.
Advantages: Suitable for heavy material removal and tough materials.
Disadvantages: Slower machining speeds, which can increase cycle times.

 

● Adjustable-Speed Spindles
Features: Allow for precise control of spindle speed to match different machining requirements.
Advantages: Versatility in handling a variety of materials and cutting conditions.
Disadvantages: Can be more complex and expensive.

Vertical Machining CenterHMC630
VMC127 Heavy-duty Machining Center

● Tilting or Swiveling Spindles
Features: These spindles can tilt or swivel to different angles, providing multi-axis machining capabilities.

Advantages: Enhanced flexibility and the ability to machine complex parts in a single setup.
Disadvantages: More complex mechanics and higher cost.

 

● Hydrostatic Spindles
Features: Use a thin film of pressurized liquid to support the spindle, reducing friction and wear.
Advantages: Extremely high precision, smooth operation, and long lifespan.
Disadvantages: Very high cost and complexity.

 

● Hybrid Spindles
Features: Combine different technologies, such as a motorized spindle with an integrated gear system.
Advantages: Can offer a balance of speed, torque, and precision.
Disadvantages: Complexity and potentially higher maintenance.

 

 
Frequently Asked Questions

 

Q: What are the considerations for balancing spindle speed and feed rate in a VMC?

A: Material Considerations in Feeds and Speeds Calculations
You should also consider the material's surface - a smooth surface likely needs a higher spindle speed than an uneven surface, and a glossy surface will need a higher speed than a rough surface.

Q: What are the benefits of using a rotary table on a VMC?

A: Integrating a rotary table with a Vertical Machining Center (VMC) unlocks a higher level of machining versatility, precision, and efficiency. By adding rotational capability to a VMC's traditional three-axis functionality, manufacturers gain the ability to perform multi-sided machining in a single setup.

Q: How does the quality of the machine's servo motors impact performance?

A: A servo motor with greater torque density and less inertia will provide greater dynamic response, improving the productivity of your machine. For the smoothest operation, consider a low-cogging motor design paired with a drive that features cogging compensation.

Q: How do different types of tool holders affect machining accuracy?

A: Better Accuracy And Precision: A good-quality holder ensures that the tool is accurately positioned, resulting in precise machining. - Reduced Vibration: they help to reduce vibration during operation, which can significantly improve the surface finish of your workpiece.

Q: How can part nesting techniques optimize material usage on a VMC?

A: Nesting is the process of arranging multiple parts to be cut onto a flat sheet of metal. The goal is to fit the parts as closely together as possible, even sharing cut lines if applicable, to minimize cutting output and material waste, save costs, and optimize production.

Q: What are the benefits of having multiple spindles in a VMC?

A: The two spindles enable a single VMC to produce two pieces at once. The spindles simultaneously follow the same tool path on two workpieces. The promise of a two-spindle machine is double productivity with only a slight increase in machine footprint.

Q: How does the use of ceramic tools compare to carbide tools in a VMC?

A: Ceramic tools are stable at extreme temperatures as high as 4,000 degrees F., unlike carbide and cement tools that contain metallic binders and begin to soften at temperatures greater than 1,000 degrees F.

Q: What are the implications of machining at varying depths of cut?

A: Cut depth directly influences machining parameters, including tool wear rate, quality of machined surface, heat rise at the tool's tip, and strength of the processed components. For instance, annealed metals are more susceptible to Built-up Edge (BUE) formation in the cutting process than cold-worked metals.

Q: How does the type of workpiece material affect tool selection?

A: The material properties of the workpiece are critical factors in tool selection. Harder materials require harder and more durable tool materials such as carbide or high-speed steel. Softer materials, on the other hand, can be machined with tools made of less durable materials, such as high-carbon steel.

Q: What are the benefits of using dynamic tool balancing systems?

A: Longevity: Balancing effectively minimises the oscillation movements that stress the machinery's bearings, shafts, and other assemblies. This, in turn, increases the life span of these components, meaning less frequent maintenance and replacement, which in the long run translates to less cost.

Q: How does the use of adaptive feed rate control improve machining results?

A: Feed rate adjustment in real time
Optimize MyMachining /AdaptiveControl detects the tool entry into the material, higher tool wrap or higher tool wear load, and reduces the feed rate for better tool protection. It also detects air-cuts or reduced tool wrap and increases the feed rate for shorter machining times.

Q: How does the stiffness of the machine's structure impact machining accuracy?

A: We must also consider how stiffness affects accuracy. We are particularly interested in the change in workpiece size that results from deflection caused by the application of the grinding force. The higher the machine stiffness, the smaller the size error.

Q: What are the implications of using different types of lubricants?

A: First, disregarding the manufacturer's recommendations for any piece of equipment or component could lead to damage and failure within the part. Secondly, lubricants with improper viscosity could fail to provide enough protection from friction and cause widespread damage within the bearing.

Q: How does the choice of bearings affect spindle performance?

A: Robust load-bearing capacity and rigidity enable spindle bearings to withstand higher cutting forces, thereby enhancing the machine tool's cutting power and depth. High-performance spindle bearings, by reducing power losses, enable higher spindle speeds, consequently boosting production efficiency.

Q: What are the benefits of using modular fixturing systems?

A: The versatility of modular fixturing means that it can be used in every work environment, from large factories to small shops. Modular fixtures compare favorably to both permanent fixtures and general-purpose workholders, as they offer excellent detail and accuracy at a much lower cost than permanent fixtures.

Q: What are the challenges of machining composite materials on a VMC?

A: Some composites are prone to fraying or delaminating, while others, like polyaryletherketone (PEAK) materials, are heat-sensitive and can adhere to cutting tools. Contending with these variables can make it tricky to find the best tool and process for the job.

Q: What are the benefits of using a machine with automatic tool length compensation?

A: On machines equipped with automatic tool change, the measurement can be performed once or before each use. It is also possible to measure the tool after machining to check its parameters and to see if it is damaged or still in the proper working condition.

Q: How does the choice of pallet changing systems impact productivity?

A: One of the biggest advantages of automated pallet changers is their speed and efficiency. They can handle a high volume of pallets quickly and accurately, which can help to increase productivity and reduce labor costs.

Q: How does the use of real-time monitoring systems improve part quality?

A: Quality control: By tracking production in real-time, these tools can immediately detect deviations from desired product specifications, ensuring consistent product quality. Inventory management: Accurate production monitoring enables better inventory control, avoiding overstocking or shortages.

Q: What are the benefits of using a machine with high-speed spindle options?

A: The workpiece surface finish is greatly enhanced: The motor's rotational speed is excellent, and in addition to hard characteristics and high rotational stability, it significantly improves the workpiece surface. High productivity: The motor has exceptional low-speed hard characteristics for rigid tapping.

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