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The CNC Rotary Table stands out for its numerous advantages that significantly enhance the capabilities of machining operations. Firstly, its precision is unparalleled in the realm of rotary machining. The advanced servo motor-driven system, coupled with high-resolution feedback devices like encoders, allows for positioning accuracies often measured in micrometers. This level of precision is a game-changer in industries where tight tolerances are the norm, such as in the production of semiconductor manufacturing equipment components. For instance, when fabricating intricate parts for wafer handling mechanisms, the CNC Rotary Table ensures that each feature is machined with pinpoint accuracy, enabling seamless integration and optimal performance of the final product.
Secondly, the flexibility offered by the CNC Rotary Table is a major boon. It can be programmed to perform a wide variety of motions, including continuous rotation, indexed positioning, and interpolated movements between different angles. This versatility enables the machining of complex 3D geometries that were previously extremely challenging or even impossible to achieve with traditional setups. Manufacturers can now produce parts with multiple sides, angled surfaces, and curved profiles in a single setup, eliminating the need for multiple fixtures and reducing the potential for errors that come with repositioning workpieces. This not only saves time but also enhances the overall quality and consistency of the manufactured parts.
Another significant advantage is the automation and repeatability it provides. Once programmed, the CNC Rotary Table can execute the same machining operations with remarkable consistency, batch after batch. This is particularly valuable in high-volume production environments where maintaining product quality and meeting production schedules are crucial. The automated nature of the table also reduces the reliance on skilled operators for repetitive tasks, allowing them to focus on more complex and value-added activities. Additionally, the ability to store and recall programs means that production can be quickly resumed for repeat orders, further increasing efficiency.
Furthermore, the CNC Rotary Table contributes to increased productivity by reducing setup times. With its quick and easy installation and calibration procedures, along with the ability to quickly change fixtures and workpieces, it minimizes the time spent on preparing for machining operations. The rapid positioning and rotation capabilities also mean that the actual machining time is reduced, as the table can quickly move to the required positions for each operation. This combination of reduced setup and machining times leads to a significant boost in overall productivity.
The design of the CNC Rotary Table is a harmonious blend of mechanical and electrical engineering. The robust base provides stability and support, while the precision-machined tabletop offers a flat and accurate surface for workpiece mounting. The drive system, with its servo motor and gearbox, is carefully calibrated for smooth and accurate motion, and the feedback control system ensures precise positioning. The safety features are also an integral part of the design, protecting both the operators and the equipment.
In the medical device manufacturing industry, the CNC Rotary Table is used to produce highly precise components for surgical instruments, implants, and diagnostic equipment. The need for accuracy and consistency in these applications is critical for patient safety and the effectiveness of the devices. In the defense industry, it plays a vital role in machining components for weapons systems, aircraft, and vehicles, where the performance and reliability of the parts are of utmost importance.
For the production of consumer electronics, such as smartphones and laptops, the CNC Rotary Table enables the manufacturing of small and intricate parts with high precision. It is also used in the automotive aftermarket for custom machining and prototyping, allowing for the creation of unique parts that meet specific performance requirements.
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The CNC Rotary Table stands out for its numerous advantages that significantly enhance the capabilities of machining operations. Firstly, its precision is unparalleled in the realm of rotary machining. The advanced servo motor-driven system, coupled with high-resolution feedback devices like encoders, allows for positioning accuracies often measured in micrometers. This level of precision is a game-changer in industries where tight tolerances are the norm, such as in the production of semiconductor manufacturing equipment components. For instance, when fabricating intricate parts for wafer handling mechanisms, the CNC Rotary Table ensures that each feature is machined with pinpoint accuracy, enabling seamless integration and optimal performance of the final product.
Secondly, the flexibility offered by the CNC Rotary Table is a major boon. It can be programmed to perform a wide variety of motions, including continuous rotation, indexed positioning, and interpolated movements between different angles. This versatility enables the machining of complex 3D geometries that were previously extremely challenging or even impossible to achieve with traditional setups. Manufacturers can now produce parts with multiple sides, angled surfaces, and curved profiles in a single setup, eliminating the need for multiple fixtures and reducing the potential for errors that come with repositioning workpieces. This not only saves time but also enhances the overall quality and consistency of the manufactured parts.
Another significant advantage is the automation and repeatability it provides. Once programmed, the CNC Rotary Table can execute the same machining operations with remarkable consistency, batch after batch. This is particularly valuable in high-volume production environments where maintaining product quality and meeting production schedules are crucial. The automated nature of the table also reduces the reliance on skilled operators for repetitive tasks, allowing them to focus on more complex and value-added activities. Additionally, the ability to store and recall programs means that production can be quickly resumed for repeat orders, further increasing efficiency.
Furthermore, the CNC Rotary Table contributes to increased productivity by reducing setup times. With its quick and easy installation and calibration procedures, along with the ability to quickly change fixtures and workpieces, it minimizes the time spent on preparing for machining operations. The rapid positioning and rotation capabilities also mean that the actual machining time is reduced, as the table can quickly move to the required positions for each operation. This combination of reduced setup and machining times leads to a significant boost in overall productivity.
The design of the CNC Rotary Table is a harmonious blend of mechanical and electrical engineering. The robust base provides stability and support, while the precision-machined tabletop offers a flat and accurate surface for workpiece mounting. The drive system, with its servo motor and gearbox, is carefully calibrated for smooth and accurate motion, and the feedback control system ensures precise positioning. The safety features are also an integral part of the design, protecting both the operators and the equipment.
In the medical device manufacturing industry, the CNC Rotary Table is used to produce highly precise components for surgical instruments, implants, and diagnostic equipment. The need for accuracy and consistency in these applications is critical for patient safety and the effectiveness of the devices. In the defense industry, it plays a vital role in machining components for weapons systems, aircraft, and vehicles, where the performance and reliability of the parts are of utmost importance.
For the production of consumer electronics, such as smartphones and laptops, the CNC Rotary Table enables the manufacturing of small and intricate parts with high precision. It is also used in the automotive aftermarket for custom machining and prototyping, allowing for the creation of unique parts that meet specific performance requirements.
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Items | TK12500 | TK12500x600 | TK12630 | TK12630x630 | TK12800 | TK121000 | TK121200 | TK121600 | ||
Dia.(lengthXwidth) mm | Φ520 | 500X600 | Φ630 | 630X630 | Φ800 | Φ1000 | Φ1200 | Φ1600 | ||
Total thickness mm | 150 | 295 | 350 | 400 | 410 | 410 | 410 | 460 | ||
Center bore dia. mm | Φ60H7 | Φ60H6 | Φ70H6 | Φ70H6 | Φ1350H6 | Φ135H6 | Φ135H6 | Φ150H7 | ||
T-slot size mm | 6-18 | 6-14 | 6-18 | 5-18 | 8-18 | 8-18 | 8-22 | 16-22 | ||
Worm gear ratio | 1:160 | 1:160 | 1:120 | 1:120 | 1:120 | 1:120 | 1:120 | 1:180 | ||
Total ratio | 1:180 | 1:180 | 1:180 | 1:180 | 1:360 | 1:360 | 1:360 | 1:720 | ||
Max.speed r/min | 11.1 | 5.5 | 5.6 | 3.7 | 2.7 | |||||
Servo motor(optional) | Power kw | ≥2.1 | ≥3.8 | ≥11.3 | ||||||
Standard electromotor | FANUC | α12 | α22 | |||||||
Max.horizontal load kg | 500 | 500 | 2000 | 2000 | 3000 | 3200 | 3200 | 8000 | ||
Clamp torque NM | Oil 1.5MPa | 1000 | 2100 | 3000 | 3000 | 6000 | 6000 | 6150 | 11760 | |
Air 0.5MPa | 900 | 1000 | 1000 | 2000 | 2000 | 2050 | 3920 | |||
Max. torque of worm gear NM | 1650 | 1700 | 3000 | 3000 | 4000 | 4000 | 4000 | 6000 | ||
Max. inertia kg.cm.s2 | 259 | 1012 | 1012 | 2449 | 4082 | 6428 | 26122 | |||
Dividing accuracy | 15” | 15” | 20” | 20” | 15” | 15” | 15” | 15” | ||
Repeatability | 6” | 4” | 4” | 4” | 4” | 4” | 4” | 4” | ||
Net weight(approx.) kg | 280 | 660 | 1300 | 1500 | 1450 | 1660 | 1920 | 5200 |
Items | TK122000 | TK122500 | ||
Dia. mm | Φ2000 | Φ2500 | ||
Total thickness mm | 500 | 1100 | ||
Center bore dia. mm | Φ150H7 | Φ150H7 | ||
T-slot size mm | 16-22 | 18-28 | ||
Worm gear ratio | 1:144 | 1:216 | ||
Total ratio | 1:720 | 1:2160 | ||
Max.speed r/min | 2.7 | 1 | ||
Servo motor(optional) | Power kw | |||
Standard electromotor | SIEMENS 1FT6105 | |||
Max.horizontal load kg | 10000 | 20000 | ||
Clamp torque NM | Oil 2MPa | 14700 | ||
Air 0.5MPa | 4900 | |||
Max. torque of worm gear NM | 6000 | 6000 | ||
Max. inertia kg.cm.s2 | 51020 | 159000 | ||
Dividing accuracy | 15” | 25” | ||
Repeatability | 4” | 6” | ||
Net weight(approx.) kg | 8500 | 25000 |
Items | TK12500 | TK12500x600 | TK12630 | TK12630x630 | TK12800 | TK121000 | TK121200 | TK121600 | ||
Dia.(lengthXwidth) mm | Φ520 | 500X600 | Φ630 | 630X630 | Φ800 | Φ1000 | Φ1200 | Φ1600 | ||
Total thickness mm | 150 | 295 | 350 | 400 | 410 | 410 | 410 | 460 | ||
Center bore dia. mm | Φ60H7 | Φ60H6 | Φ70H6 | Φ70H6 | Φ1350H6 | Φ135H6 | Φ135H6 | Φ150H7 | ||
T-slot size mm | 6-18 | 6-14 | 6-18 | 5-18 | 8-18 | 8-18 | 8-22 | 16-22 | ||
Worm gear ratio | 1:160 | 1:160 | 1:120 | 1:120 | 1:120 | 1:120 | 1:120 | 1:180 | ||
Total ratio | 1:180 | 1:180 | 1:180 | 1:180 | 1:360 | 1:360 | 1:360 | 1:720 | ||
Max.speed r/min | 11.1 | 5.5 | 5.6 | 3.7 | 2.7 | |||||
Servo motor(optional) | Power kw | ≥2.1 | ≥3.8 | ≥11.3 | ||||||
Standard electromotor | FANUC | α12 | α22 | |||||||
Max.horizontal load kg | 500 | 500 | 2000 | 2000 | 3000 | 3200 | 3200 | 8000 | ||
Clamp torque NM | Oil 1.5MPa | 1000 | 2100 | 3000 | 3000 | 6000 | 6000 | 6150 | 11760 | |
Air 0.5MPa | 900 | 1000 | 1000 | 2000 | 2000 | 2050 | 3920 | |||
Max. torque of worm gear NM | 1650 | 1700 | 3000 | 3000 | 4000 | 4000 | 4000 | 6000 | ||
Max. inertia kg.cm.s2 | 259 | 1012 | 1012 | 2449 | 4082 | 6428 | 26122 | |||
Dividing accuracy | 15” | 15” | 20” | 20” | 15” | 15” | 15” | 15” | ||
Repeatability | 6” | 4” | 4” | 4” | 4” | 4” | 4” | 4” | ||
Net weight(approx.) kg | 280 | 660 | 1300 | 1500 | 1450 | 1660 | 1920 | 5200 |
Items | TK122000 | TK122500 | ||
Dia. mm | Φ2000 | Φ2500 | ||
Total thickness mm | 500 | 1100 | ||
Center bore dia. mm | Φ150H7 | Φ150H7 | ||
T-slot size mm | 16-22 | 18-28 | ||
Worm gear ratio | 1:144 | 1:216 | ||
Total ratio | 1:720 | 1:2160 | ||
Max.speed r/min | 2.7 | 1 | ||
Servo motor(optional) | Power kw | |||
Standard electromotor | SIEMENS 1FT6105 | |||
Max.horizontal load kg | 10000 | 20000 | ||
Clamp torque NM | Oil 2MPa | 14700 | ||
Air 0.5MPa | 4900 | |||
Max. torque of worm gear NM | 6000 | 6000 | ||
Max. inertia kg.cm.s2 | 51020 | 159000 | ||
Dividing accuracy | 15” | 25” | ||
Repeatability | 4” | 6” | ||
Net weight(approx.) kg | 8500 | 25000 |
Q: Are you a factory or tading company?
A: We are an integration of factory and trade.
Q: What payment service do you offer?
A: We offer T/T, Paypal,Western Union,Cash...
Q: What types of workpieces are suitable for machining on a CNC Rotary Table?
A: The CNC Rotary Table is suitable for a wide range of workpieces, including cylindrical, conical, and irregularly shaped parts. It can handle both small and large workpieces, depending on the load capacity of the table. Workpieces made from various materials such as metals (including steel, aluminum, and titanium), plastics, and composites can be machined on the table. However, it is important to ensure that the workpiece is properly secured using appropriate fixtures to prevent any movement during machining.
Q: How does the CNC control system communicate with the Rotary Table?
A: The CNC control system communicates with the Rotary Table through a dedicated interface. This interface can be in the form of a wired connection, such as Ethernet or a serial port, or a wireless connection in some advanced systems. The control system sends commands to the table's servo motor and receives feedback from the position sensors (such as encoders) to ensure accurate positioning and movement. The communication protocol is usually standardized and can be configured according to the specific requirements of the CNC machine and the table.
Q: Are you a factory or tading company?
A: We are an integration of factory and trade.
Q: What payment service do you offer?
A: We offer T/T, Paypal,Western Union,Cash...
Q: What types of workpieces are suitable for machining on a CNC Rotary Table?
A: The CNC Rotary Table is suitable for a wide range of workpieces, including cylindrical, conical, and irregularly shaped parts. It can handle both small and large workpieces, depending on the load capacity of the table. Workpieces made from various materials such as metals (including steel, aluminum, and titanium), plastics, and composites can be machined on the table. However, it is important to ensure that the workpiece is properly secured using appropriate fixtures to prevent any movement during machining.
Q: How does the CNC control system communicate with the Rotary Table?
A: The CNC control system communicates with the Rotary Table through a dedicated interface. This interface can be in the form of a wired connection, such as Ethernet or a serial port, or a wireless connection in some advanced systems. The control system sends commands to the table's servo motor and receives feedback from the position sensors (such as encoders) to ensure accurate positioning and movement. The communication protocol is usually standardized and can be configured according to the specific requirements of the CNC machine and the table.
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