High Quality Aero Space Tooling & Machining
Customers are fond of aero space tooling & machining produced by Honscn Co.,Ltd for its highest quality. From raw materials selection, production to packing, the product will undergo strict tests during each production process. And the quality inspection process is conducted by our professional QC team who are all experienced in this field. And it is produced in strict conformity with the international quality system standard and has passed related international quality certification like CE.
At HONSCN, the products' fame spreads far and wide in the international market. They are sold at a very competitive price in the market, which will save more cost for customers. Many customers speak highly of them and purchase from us repeatedly. In the present, there are more and more customers from all over the world seeking for cooperation with us.
Precision-engineered solutions, tailored for aerospace applications, combine advanced tooling and machining technologies to meet stringent industry demands. With cutting-edge manufacturing techniques, these components ensure reliability and accuracy critical for modern aerospace engineering. They seamlessly integrate into complex systems, supporting the development of high-performance aircraft and spacecraft.
How to choose aero space tooling & machining?
- Precision-engineered aerospace tooling ensures tight tolerances and exact specifications for critical flight components.
- Ideal for manufacturing turbine blades, landing gear, and structural aircraft parts requiring micrometer-level accuracy.
- Recommended for use with CNC machining and CAD/CAM software to maintain consistency and reduce material waste.
- Aerospace-grade materials (e.g., titanium, Inconel) withstand extreme temperatures, corrosion, and stress for mission-critical applications.
- Suitable for engine components, fuel systems, and high-load airframe structures in commercial and defense aviation.
- Choose suppliers with AS9100 certification to guarantee compliance with global aerospace quality standards.
- Innovative machining techniques like 5-axis milling and additive manufacturing enable complex, lightweight designs for modern aircraft.
- Applicable for prototyping next-gen aerospace components, such as drone parts or satellite housings.
- Opt for hybrid tooling solutions combining traditional and digital workflows for faster iteration and cost efficiency.
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It is said that in the career of a machine tool worker, no matter how careful it is, it is impossible to avoid a knife collision accident.This has nothing to do with whether the worker is serious and practical and stable, just like a person can not avoid mistakes in the growth process, in the growth process of a machine tool worker, the knife seems to be a hurdle that cannot be bypassing.
Bumping tool, refers to the tool in the process of moving with the workpiece, chuck or tailstock accidental collision machine accident, is the most likely accident for CNC lathe operation novices.
Knife collision will cause workpiece scrap, tool damage, serious damage to the accuracy of the machine tool, destroy the machine parts, and even endanger the personal safety of the machine tool processing personnel.
The occurrence of knife collision accidents is mainly caused by programming errors in the programming process or workers' operational errors in the processing link.
For workers, the general programming link is not easy to make mistakes, and many people have knife collision accidents, often caused by mistakes in the process of machine tool operation.
Because the CNC machining center is locked by software, in the simulation processing, when the automatic operation button is pressed, it is not intuitive to see whether the machine is locked in the simulation interface.
There is often no tool in the simulation, and if the machine tool is not locked to run, it is easy to bump the knife.
Therefore, before the simulation processing should go to the running interface to confirm whether the machine is locked.
Why do CNC machining centers bump knives?
1. Forget to turn off the empty running switch during processing.
Because in the program simulation, in order to save time, the empty run switch is often turned on.
Empty operation means that all moving axes of the machine are running at the speed of G00.
If the operation switch is not turned off during the processing time, the machine tool ignores the given feed speed, and runs at the speed of G00, resulting in knife and machine tool accidents.
2. No reference point is returned after running the simulation empty.
In the verification program when the machine is locked motionless, and the tool relative to the workpiece processing in the simulation operation (absolute coordinates and relative coordinates change), then the coordinates do not match the actual position, must use the method of returning the reference point to ensure that the mechanical zero coordinates are consistent with the absolute and relative coordinates.
If the machining operation is carried out without finding the problem after the verification procedure, it will cause the collision of the tool.
3. The direction of overshoot release is not correct.
When the machine overruns, it should press and hold the overruns release button, and move in the opposite direction manually or by hand, that is, it can be eliminated.
However, if the direction of lifting is reversed, it will cause damage to the machine tool.
Because when the overrange release is pressed, the overrange protection of the machine tool will not work, and the stroke switch of the overrange protection is already at the end of the stroke.
At this time, it is possible to cause the workbench to continue to move in the direction of excess, and eventually pull the lead screw, causing damage to the machine tool.
4. The cursor position of the specified line is incorrect.
When a specified line is run, it is usually executed downward from the cursor position.
For the lathe, it is necessary to call the tool offset value of the tool used, if the tool is not called, the tool running the program segment may not be the desired tool, and it is very likely to cause a collision accident due to different tools.
Of course, in the machining center, CNC milling machine must first call the coordinate system such as G54 and the length compensation value of the knife.
Because the length compensation value of each knife is not the same, it is possible to cause knife collision if it is not called.
As a high-precision machine tool, anti-collision is very necessary, requiring the operator to develop the habit of being careful and careful, operating the machine tool according to the correct method, and reducing the occurrence of machine tool collision.
With the development of technology, advanced technologies such as tool damage detection, machine tool anti-impact detection, and machine tool adaptive processing have emerged during processing, which can better protect CNC machine tools.
There are 9 reasons for this:
(1) Programming error
The process arrangement is wrong, the process undertaking relationship is not carefully considered, and the parameter setting is wrong.
Example :
A. The coordinate is set to zero at the base, but the top is 0 in practice;
B. The safety height is too low, resulting in the tool can not completely lift out the workpiece;
C. The second opening margin is less than the previous knife;
D. After the program is written, the path of the program should be analyzed and checked;
(2) Program single remarks error
Example:
A. The number of unilateral touches is written in four sides;
B. The clamping distance of the vise or the protruding distance of the workpiece is wrong;
C. The extension length of the tool is unknown or wrong, resulting in knife collision;
D. Procedure sheet should be as detailed as possible;
E. The principle of new for old should be adopted when the procedure is changed:Destroy the old program.
(3) Tool measurement error
Example:
A. The tool bar is not considered in the tool data input;
B. The tool is too short;
C. Tool measurement should use scientific methods, as far as possible with more accurate instruments;
D. The length of the tool should be 2-5mm longer than the actual depth.
(4) Program transmission error
Program number call error or program modification, but still use the old program processing; The site processor must check the detailed data of the program before processing; For example, the time and date the program was written and simulated with bear.
(5) Wrong knife selection
(6) the blank exceeds expectations, and the blank is too large and does not conform to the blank set by the program
(7) The workpiece material itself has defects or high hardness
(8) clamping factors, pad interference and the procedure is not considered
(9) Machine tool failure, sudden power failure, lightning strike caused tool collision, etc
Honscn has more than ten years of cnc machining experience, specializing in cnc machining, hardware mechanical parts processing, automation equipment parts processing. Robot parts processing, UAV parts processing, bicycle parts processing, medical parts processing, etc. It is one of the high-quality suppliers of cnc machining. At present, the company has more than 20 sets of cnc machining centers, grinding machines, milling machines, high-quality high-precision testing equipment, to provide customers with precision and high-quality cnc spare parts processing services.
Bumping tool, refers to the tool in the process of moving with the workpiece, chuck or tailstock accidental collision machine accident, is the most likely accident for CNC lathe operation novices.
Knife collision will cause workpiece scrap, tool damage, serious damage to the accuracy of the machine tool, destroy the machine parts, and even endanger the personal safety of the machine tool processing personnel.
The occurrence of knife collision accidents is mainly caused by programming errors in the programming process or workers' operational errors in the processing link.
For workers, the general programming link is not easy to make mistakes, and many people have knife collision accidents, often caused by mistakes in the process of machine tool operation.
Because the CNC machining center is locked by software, in the simulation processing, when the automatic operation button is pressed, it is not intuitive to see whether the machine is locked in the simulation interface.
There is often no tool in the simulation, and if the machine tool is not locked to run, it is easy to bump the knife.
Therefore, before the simulation processing should go to the running interface to confirm whether the machine is locked.
Why do CNC machining centers bump knives?
1. Forget to turn off the empty running switch during processing.
Because in the program simulation, in order to save time, the empty run switch is often turned on.
Empty operation means that all moving axes of the machine are running at the speed of G00.
If the operation switch is not turned off during the processing time, the machine tool ignores the given feed speed, and runs at the speed of G00, resulting in knife and machine tool accidents.
2. No reference point is returned after running the simulation empty.
In the verification program when the machine is locked motionless, and the tool relative to the workpiece processing in the simulation operation (absolute coordinates and relative coordinates change), then the coordinates do not match the actual position, must use the method of returning the reference point to ensure that the mechanical zero coordinates are consistent with the absolute and relative coordinates.
If the machining operation is carried out without finding the problem after the verification procedure, it will cause the collision of the tool.
3. The direction of overshoot release is not correct.
When the machine overruns, it should press and hold the overruns release button, and move in the opposite direction manually or by hand, that is, it can be eliminated.
However, if the direction of lifting is reversed, it will cause damage to the machine tool.
Because when the overrange release is pressed, the overrange protection of the machine tool will not work, and the stroke switch of the overrange protection is already at the end of the stroke.
At this time, it is possible to cause the workbench to continue to move in the direction of excess, and eventually pull the lead screw, causing damage to the machine tool.
4. The cursor position of the specified line is incorrect.
When a specified line is run, it is usually executed downward from the cursor position.
For the lathe, it is necessary to call the tool offset value of the tool used, if the tool is not called, the tool running the program segment may not be the desired tool, and it is very likely to cause a collision accident due to different tools.
Of course, in the machining center, CNC milling machine must first call the coordinate system such as G54 and the length compensation value of the knife.
Because the length compensation value of each knife is not the same, it is possible to cause knife collision if it is not called.
As a high-precision machine tool, anti-collision is very necessary, requiring the operator to develop the habit of being careful and careful, operating the machine tool according to the correct method, and reducing the occurrence of machine tool collision.
With the development of technology, advanced technologies such as tool damage detection, machine tool anti-impact detection, and machine tool adaptive processing have emerged during processing, which can better protect CNC machine tools.
There are 9 reasons for this:
(1) Programming error
The process arrangement is wrong, the process undertaking relationship is not carefully considered, and the parameter setting is wrong.
Example :
A. The coordinate is set to zero at the base, but the top is 0 in practice;
B. The safety height is too low, resulting in the tool can not completely lift out the workpiece;
C. The second opening margin is less than the previous knife;
D. After the program is written, the path of the program should be analyzed and checked;
(2) Program single remarks error
Example:
A. The number of unilateral touches is written in four sides;
B. The clamping distance of the vise or the protruding distance of the workpiece is wrong;
C. The extension length of the tool is unknown or wrong, resulting in knife collision;
D. Procedure sheet should be as detailed as possible;
E. The principle of new for old should be adopted when the procedure is changed:Destroy the old program.
(3) Tool measurement error
Example:
A. The tool bar is not considered in the tool data input;
B. The tool is too short;
C. Tool measurement should use scientific methods, as far as possible with more accurate instruments;
D. The length of the tool should be 2-5mm longer than the actual depth.
(4) Program transmission error
Program number call error or program modification, but still use the old program processing; The site processor must check the detailed data of the program before processing; For example, the time and date the program was written and simulated with bear.
(5) Wrong knife selection
(6) the blank exceeds expectations, and the blank is too large and does not conform to the blank set by the program
(7) The workpiece material itself has defects or high hardness
(8) clamping factors, pad interference and the procedure is not considered
(9) Machine tool failure, sudden power failure, lightning strike caused tool collision, etc
Honscn has more than ten years of cnc machining experience, specializing in cnc machining, hardware mechanical parts processing, automation equipment parts processing. Robot parts processing, UAV parts processing, bicycle parts processing, medical parts processing, etc. It is one of the high-quality suppliers of cnc machining. At present, the company has more than 20 sets of cnc machining centers, grinding machines, milling machines, high-quality high-precision testing equipment, to provide customers with precision and high-quality cnc spare parts processing services.
In modern manufacturing, CNC (computer digital control) processing technology plays a vital role. Among them, turning, milling, cutting and turning milling combined processing are common process methods. They each have unique characteristics and scope of application, but also have some advantages and disadvantages. In-depth understanding of the similarities and differences of these processing technologies is of great significance for optimizing the production process and improving the processing quality and efficiency.
Advantages and disadvantages of machining processes such as CNC turning, milling, cutting and turn-milling combined machining
CNC turning
(1) Advantages
1. Suitable for processing rotary parts, such as shaft, disk parts, can efficiently realize the outer circle, inner circle, thread and other surface processing.
2. Because the tool moves along the axis of the part, the cutting force is usually more stable, which is conducive to ensuring the machining accuracy and surface quality.
(2) Disadvantages
1. For non-rotating parts or parts with complex shapes, the processing capacity of turning is limited.
2. A clamping usually can only process one surface, for multi-sided processing requires multiple clamping, which may affect the processing accuracy.
CNC milling
(1) Advantages
1. Can process various shapes of parts, including plane, surface, cavity, etc., with strong versatility.
2. High precision machining of complex shapes can be achieved through multi-axis linkage.
(2) Disadvantages
1. When processing slender shaft or thin-walled parts, it is easy to deform due to the action of cutting force.
2. The cutting speed of milling is usually higher, the tool wear is faster, and the cost is relatively high.
CNC cutting
(1) Advantages
1. High machining accuracy and surface roughness can be obtained.
2. Suitable for processing materials with high hardness.
(2) Disadvantages
1. The cutting speed is slow, and the processing efficiency is relatively low.
2. Higher requirements for tools and higher tool costs.
CNC turning and milling composite processing
(1) Advantages
1. Integrated turning and milling functions, a clamping can complete the processing of multiple processes, reduce the clamping times, improve the processing accuracy and production efficiency.
2. Can process complex shape parts, make up for the lack of a single turning or milling process.
(2) Disadvantages
1. The equipment cost is high, and the technical requirements for the operator are also high.
2. Programming and process planning are relatively complex.
CNC turning, milling, cutting and turning milling combined processing processes each have advantages and disadvantages. In the actual production, the processing technology should be reasonably selected according to the structural characteristics of the parts, precision requirements, production batch and other factors to achieve the best processing effect and economic benefits. With the continuous progress of technology, these processing processes will also continue to develop and improve, providing stronger support for the development of the manufacturing industry.
The similarities and differences of CNC turning, milling, cutting and turning milling combined machining are analyzed from different angles
1. processing objects and shapes
1. Turning: mainly suitable for processing rotary parts, such as shaft, disc, sleeve parts, can efficiently process outer circle, inner circle, cone, thread and so on.
2. Milling: better at processing planes, steps, grooves, surfaces, etc., with advantages for non-rotating parts and parts with complex contours.
3. Cutting: It is usually used for fine machining of parts to obtain high precision surface and size.
4. Turning and milling composite processing: It integrates the functions of turning and milling, and can process parts with complex shapes and both rotary and non-rotary characteristics.
2. tool movement mode
1. Turning: The tool moves in a straight line or curve along the axis of the part.
2. Milling: The tool rotates around its own axis and does translation movement along the surface of the part.
3. Cutting: The tool makes precise cutting action relative to the part.
4. Turning and milling composite processing: on the same machine tool, to achieve different movement combinations of turning tools and milling tools.
3. processing accuracy and surface quality
1. Turning: When processing the surface of the rotary body, it can achieve higher accuracy and better surface quality.
2. Milling: Machining accuracy for flat and complex profiles depends on machine tool accuracy and tool selection.
3. Cutting: Very high precision and excellent surface roughness can be achieved.
4. Turning and milling composite processing: combining the advantages of turning and milling, it can meet the high accuracy requirements, but the accuracy is also affected by the comprehensive impact of the machine tool and process.
4. Processing efficiency
1. Turning: For large quantities of rotary parts processing, high efficiency.
2. Milling: When machining complex shapes and polyhedral parts, the efficiency depends on the tool path and machine performance.
3. Cutting: Because the cutting speed is relatively slow, the processing efficiency is generally low, but it is indispensable in the demand for high precision.
4. Turning and milling composite processing: one clamping to complete a variety of processes, reduce the clamping time and error, improve the overall processing efficiency.
5. Equipment cost and complexity
1. Turning machine: relatively simple structure, relatively low cost.
2. Milling machine: According to the number of shafts and functions, the cost varies, and the cost of multi-axis milling machine is higher.
3. Cutting equipment: usually more sophisticated, high cost.
4. Turning and milling composite processing machine: integrated with a variety of functions, high equipment cost, complex control system.
6. Application fields
1. Turning: widely used in automobile, machinery manufacturing and other industries of shaft parts processing.
2. Milling: It is often used for the processing of complex parts in mold manufacturing, aerospace and other fields.
3. Cutting: Often used in precision instruments, electronics and other industries with high precision requirements.
4. Turning and milling composite processing: in high-end manufacturing, medical equipment and other fields, it has important applications for the processing of complex and high-precision parts.
CNC turning, milling, cutting and turning milling composite processing in many aspects of the similarities and differences, should be based on the specific processing needs and production conditions to choose the appropriate processing technology.
Comparison of efficiency of turning and milling combined machining with turning and milling
The efficiency comparison of turning and milling combined machining, turning and milling cannot be simply generalized, but is affected by many factors.
Turning has high efficiency in the processing of rotary parts, especially for large quantities of standard shaft and disk parts. Its tool movement is relatively simple, the cutting speed is high, and continuous cutting can be achieved.
Milling has advantages for machining planes, steps, grooves and complex contours. However, when processing simple rotary parts, its efficiency may not be as good as turning.
The combination of turning and milling machining combines the advantages of turning and milling, and can complete the turning and milling processes in a single clip, reducing the number of clips and positioning errors. For the parts with complex shape and both rotary and non-rotary characteristics, the combined turning and milling machining can significantly improve the machining efficiency.
However, the efficiency benefits of combined turning and milling may not be evident in the following cases:
1. When processing simple parts that only need to be turned or milled in a single process, due to the high cost and complexity of the turn-milling complex machine tool, it may not be as efficient as the specialized turning or milling machine.
2. In small batch production, the adjustment and programming time of the machine tool account for a large proportion in the entire processing cycle, which may affect the efficiency advantage of the turn-milling composite processing.
In general, for the medium and large volume production of complex parts, the turn-milling composite machining usually has a higher overall efficiency; For simple parts or small batch production, turning and milling may be more efficient in certain situations.
CNC turning, milling, cutting and turning milling combined processing technology is an important means in modern manufacturing industry. Turning is good at processing rotary parts, milling can deal with complex shapes and polyhedra, cutting can achieve high-precision surface treatment, and turn-milling composite processing is a combination of the two, can complete a variety of processes in a clip. Each process has its own unique advantages and scope of application, high turning efficiency in rotary body machining performance, milling versatility to meet the needs of complex contours, cutting accuracy is excellent, turning and milling combined processing is both precision and efficiency. In actual production, according to the characteristics of parts, accuracy requirements, batch size and other factors, reasonable selection of processes to achieve high quality, high efficiency and low cost manufacturing goals, to promote the continuous development and progress of the manufacturing industry.
Advantages and disadvantages of machining processes such as CNC turning, milling, cutting and turn-milling combined machining
CNC turning
(1) Advantages
1. Suitable for processing rotary parts, such as shaft, disk parts, can efficiently realize the outer circle, inner circle, thread and other surface processing.
2. Because the tool moves along the axis of the part, the cutting force is usually more stable, which is conducive to ensuring the machining accuracy and surface quality.
(2) Disadvantages
1. For non-rotating parts or parts with complex shapes, the processing capacity of turning is limited.
2. A clamping usually can only process one surface, for multi-sided processing requires multiple clamping, which may affect the processing accuracy.
CNC milling
(1) Advantages
1. Can process various shapes of parts, including plane, surface, cavity, etc., with strong versatility.
2. High precision machining of complex shapes can be achieved through multi-axis linkage.
(2) Disadvantages
1. When processing slender shaft or thin-walled parts, it is easy to deform due to the action of cutting force.
2. The cutting speed of milling is usually higher, the tool wear is faster, and the cost is relatively high.
CNC cutting
(1) Advantages
1. High machining accuracy and surface roughness can be obtained.
2. Suitable for processing materials with high hardness.
(2) Disadvantages
1. The cutting speed is slow, and the processing efficiency is relatively low.
2. Higher requirements for tools and higher tool costs.
CNC turning and milling composite processing
(1) Advantages
1. Integrated turning and milling functions, a clamping can complete the processing of multiple processes, reduce the clamping times, improve the processing accuracy and production efficiency.
2. Can process complex shape parts, make up for the lack of a single turning or milling process.
(2) Disadvantages
1. The equipment cost is high, and the technical requirements for the operator are also high.
2. Programming and process planning are relatively complex.
CNC turning, milling, cutting and turning milling combined processing processes each have advantages and disadvantages. In the actual production, the processing technology should be reasonably selected according to the structural characteristics of the parts, precision requirements, production batch and other factors to achieve the best processing effect and economic benefits. With the continuous progress of technology, these processing processes will also continue to develop and improve, providing stronger support for the development of the manufacturing industry.
The similarities and differences of CNC turning, milling, cutting and turning milling combined machining are analyzed from different angles
1. processing objects and shapes
1. Turning: mainly suitable for processing rotary parts, such as shaft, disc, sleeve parts, can efficiently process outer circle, inner circle, cone, thread and so on.
2. Milling: better at processing planes, steps, grooves, surfaces, etc., with advantages for non-rotating parts and parts with complex contours.
3. Cutting: It is usually used for fine machining of parts to obtain high precision surface and size.
4. Turning and milling composite processing: It integrates the functions of turning and milling, and can process parts with complex shapes and both rotary and non-rotary characteristics.
2. tool movement mode
1. Turning: The tool moves in a straight line or curve along the axis of the part.
2. Milling: The tool rotates around its own axis and does translation movement along the surface of the part.
3. Cutting: The tool makes precise cutting action relative to the part.
4. Turning and milling composite processing: on the same machine tool, to achieve different movement combinations of turning tools and milling tools.
3. processing accuracy and surface quality
1. Turning: When processing the surface of the rotary body, it can achieve higher accuracy and better surface quality.
2. Milling: Machining accuracy for flat and complex profiles depends on machine tool accuracy and tool selection.
3. Cutting: Very high precision and excellent surface roughness can be achieved.
4. Turning and milling composite processing: combining the advantages of turning and milling, it can meet the high accuracy requirements, but the accuracy is also affected by the comprehensive impact of the machine tool and process.
4. Processing efficiency
1. Turning: For large quantities of rotary parts processing, high efficiency.
2. Milling: When machining complex shapes and polyhedral parts, the efficiency depends on the tool path and machine performance.
3. Cutting: Because the cutting speed is relatively slow, the processing efficiency is generally low, but it is indispensable in the demand for high precision.
4. Turning and milling composite processing: one clamping to complete a variety of processes, reduce the clamping time and error, improve the overall processing efficiency.
5. Equipment cost and complexity
1. Turning machine: relatively simple structure, relatively low cost.
2. Milling machine: According to the number of shafts and functions, the cost varies, and the cost of multi-axis milling machine is higher.
3. Cutting equipment: usually more sophisticated, high cost.
4. Turning and milling composite processing machine: integrated with a variety of functions, high equipment cost, complex control system.
6. Application fields
1. Turning: widely used in automobile, machinery manufacturing and other industries of shaft parts processing.
2. Milling: It is often used for the processing of complex parts in mold manufacturing, aerospace and other fields.
3. Cutting: Often used in precision instruments, electronics and other industries with high precision requirements.
4. Turning and milling composite processing: in high-end manufacturing, medical equipment and other fields, it has important applications for the processing of complex and high-precision parts.
CNC turning, milling, cutting and turning milling composite processing in many aspects of the similarities and differences, should be based on the specific processing needs and production conditions to choose the appropriate processing technology.
Comparison of efficiency of turning and milling combined machining with turning and milling
The efficiency comparison of turning and milling combined machining, turning and milling cannot be simply generalized, but is affected by many factors.
Turning has high efficiency in the processing of rotary parts, especially for large quantities of standard shaft and disk parts. Its tool movement is relatively simple, the cutting speed is high, and continuous cutting can be achieved.
Milling has advantages for machining planes, steps, grooves and complex contours. However, when processing simple rotary parts, its efficiency may not be as good as turning.
The combination of turning and milling machining combines the advantages of turning and milling, and can complete the turning and milling processes in a single clip, reducing the number of clips and positioning errors. For the parts with complex shape and both rotary and non-rotary characteristics, the combined turning and milling machining can significantly improve the machining efficiency.
However, the efficiency benefits of combined turning and milling may not be evident in the following cases:
1. When processing simple parts that only need to be turned or milled in a single process, due to the high cost and complexity of the turn-milling complex machine tool, it may not be as efficient as the specialized turning or milling machine.
2. In small batch production, the adjustment and programming time of the machine tool account for a large proportion in the entire processing cycle, which may affect the efficiency advantage of the turn-milling composite processing.
In general, for the medium and large volume production of complex parts, the turn-milling composite machining usually has a higher overall efficiency; For simple parts or small batch production, turning and milling may be more efficient in certain situations.
CNC turning, milling, cutting and turning milling combined processing technology is an important means in modern manufacturing industry. Turning is good at processing rotary parts, milling can deal with complex shapes and polyhedra, cutting can achieve high-precision surface treatment, and turn-milling composite processing is a combination of the two, can complete a variety of processes in a clip. Each process has its own unique advantages and scope of application, high turning efficiency in rotary body machining performance, milling versatility to meet the needs of complex contours, cutting accuracy is excellent, turning and milling combined processing is both precision and efficiency. In actual production, according to the characteristics of parts, accuracy requirements, batch size and other factors, reasonable selection of processes to achieve high quality, high efficiency and low cost manufacturing goals, to promote the continuous development and progress of the manufacturing industry.
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