Shenzhen, China With an array of advanced machining equipments and a team of qualified and experienced technicians and engineers, Runsom Precision boasts of supplying custom machined parts to their industrial clients in a timely manner. According to the spokesperson of the company, they can ship the custom machining parts within 48 hours of receiving the order from the client.
The spokesperson reveals that they maintain a streamlined machining process that makes them capable of shipping China machining parts that precisely meet the specifications supplied by a client. By supplying precision and custom parts in a timely and regular manner, they allow their industrial clients to keep innovating and producing new goods to gain a competitive advantage in the market. They deliver precision machined components within the scheduled time for industries to carry out their production work continually and without any interruption.
According to the spokesperson, they enjoy an excellent reputation in the industry for their outstanding China machining service . They maintain high precision of all machined components, including the holes, axis and the center distance. Moreover, they employ multiple machines for different types of components to help achieve the highest possible degree of precision. The multiple-machining technique proves very important to reduce the production cost and also shortens the project duration. This also gives them the ability to process complex components that need to pass through different machining processes.
Not only cost and customization, but Runsom Precision also focuses on the quality when it comes to supplying CNC Machining parts . The spokesperson maintains that their machining process is strictly according to the ISO 9001:200 standards and the machining of each component is monitored for their quality. According to him, with a stringent quality control measure, they take extra care to make sure that defect free machined parts are delivered to the clients. Their custom machining ensures that clients get the product that exactly meets their specification.
To know more about their machining process, one can visit their website
About Runsom Precision
Runsom Precision Co. Ltd, established since 2005, is a professional, customized, high precision machined components manufacturer based in Shenzhen, China. With years of experience in the manufacturing and services of CNC machined parts, precision engineering components, custom machined parts, Precision CNC machining service, injection molding parts and die casting parts, the company has established a high reputation for their high quality and nice service. They are able to provide one-stop services from initial concept to finished products.
Contact:
Lucy Zhang (sales)
Company: Runsom precision co.,ltd
Phone no: 86-755-3309675

The processing methods of holes include drilling, reaming, reaming, boring, drawing, grinding and finishing of holes. The following small series for you to introduce several hole processing technology in detail, crack the hole processing problems.

The hole is an important surface on the box, bracket, sleeve, ring, and disk parts, and it is also a surface often encountered in machining. In the case of the same processing accuracy and surface roughness requirements, it is difficult to process the hole than the outer round surface, low productivity and high cost.

This is because: 1) the size of the tool used in hole processing is limited by the size of the hole being processed, and the rigidity is poor, which is easy to produce bending deformation and vibration; 2) When machining the hole with a fixed-size tool, the size of the hole processing often directly depends on the corresponding size of the tool, and the manufacturing error and wear of the tool will directly affect the processing accuracy of the hole; 3) When machining holes, the cutting area is inside the workpiece, the chip removal and heat dissipation conditions are poor, and the processing accuracy and surface quality are not easy to control.




Drilling and reaming

Drilling

Drilling is the first process of machining holes on solid materials, and the diameter of the drilling hole is generally less than 80mm. There are two ways of drilling: one is the bit rotation; The other is workpiece rotation. The error generated by the above two drilling methods is not the same, in the drilling method of the bit rotation, due to the asymmetry of the cutting edge and the insufficient rigidity of the bit and the bit deflection, the center line of the hole will be skewed or not straight, but the aperture is basically unchanged; On the contrary, in the drilling method of workpiece rotation, the bit deflection will cause the aperture to change, but the center line of the hole is still straight.

Commonly used drilling knives have: twist drill, center drill, deep hole drill, etc., of which the most commonly used is twist drill, its diameter specification is Φ0.1-80mm.

Due to structural limitations, the bending stiffness and torsional rigidity of the drill bit are low, coupled with poor centering, the drilling accuracy is low, generally only IT13 ~ IT11; The surface roughness is also large, Ra is generally 50~12.5μm; However, the metal removal rate of drilling is large and the cutting efficiency is high. Drilling is mainly used for processing holes with low quality requirements, such as bolt holes, thread bottom holes, oil holes, etc. For holes with high machining accuracy and surface quality requirements, they should be achieved by reaming, reaming, boring or grinding in subsequent processing.

Reaming

Reaming is to further process the hole that has been drilled, cast or forged with a reaming drill to enlarge the aperture and improve the processing quality of the hole. Reaming can be used either as a pre-processing before finishing the hole or as the final processing of the hole with low requirements. Reaming drill is similar to twist drill, but has more teeth and no cross edge.

Compared with drilling, reaming has the following characteristics:

(1) the number of reaming drill teeth (3~8 teeth), good guidance, cutting is relatively stable; (2) reaming drill without cross edge, cutting conditions are good;

(3) The processing allowance is small, the chip sink can be made shallower, the drill core can be made thicker, and the tool body strength and rigidity are better. The precision of reaming is generally IT11~IT10, and the surface roughness Ra is 12.5~6.3μm. Reaming is often used to process holes with smaller diameters. When drilling a large diameter hole (D ≥30mm), often use a small drill bit (diameter of 0.5 to 0.7 times of the aperture) to pre-drill, and then use the corresponding size of the hole reaming drill, which can improve the processing quality and production efficiency of the hole.

In addition to processing cylindrical holes, reaming drills of various special shapes (also known as countersinks) can be used to process various countersunk seat holes and countersinks. The front face of the countersink is often equipped with a guide post, guided by a machined hole.




Reaming

Reaming is one of the finishing methods of holes, which is widely used in production. For smaller holes, reaming is a more economical and practical machining method than internal grinding and fine boring.

1. Reamer

Reamer is generally divided into two kinds of hand reamer and machine reamer. The handle part of the hand reamer is straight handle, the working part is longer, and the guiding function is better. The hand reamer has two kinds of structures: integral and adjustable outside diameter. The machine reamer has two kinds of structure with handle and sleeve. The reamer can not only process round holes, but also taper reamer can process taper holes.

2. Reaming process and its application

Reaming allowance has a great influence on the quality of reaming, the allowance is too large, the load of the reamer is large, the cutting edge is soon blunted, it is not easy to obtain a smooth machining surface, and the dimensional tolerance is not easy to guarantee; The margin is too small to remove the knife marks left by the previous process, and naturally there is no role in improving the quality of hole processing. Generally, the margin of coarse hinge is 0.35~0.15mm, and the fine hinge is 01.5~0.05mm.

To avoid chip nodules, reaming is usually processed at a lower cutting speed (v <8m/min for steel and cast iron with HSS reamers). The value of feed is related to the aperture to be machined, the larger the aperture, the larger the feed value, the feed rate of high-speed steel reamer processing steel and cast iron is usually 0.3~1mm/r.

Reaming must be cooled, lubricated and cleaned with appropriate cutting fluid to prevent chip buildup and remove chips in time. Compared with grinding and boring, the reaming productivity is higher and the accuracy of the hole is easily guaranteed. However, reaming can not correct the position error of the hole axis, and the position accuracy of the hole should be guaranteed by the previous process. Reaming is not suitable for processing step holes and blind holes.

The dimensional accuracy of reaming is generally IT9 ~ IT7, and the surface roughness Ra is generally 3.2~ 0.8μm. For medium-size holes with high precision requirements (such as IT7 precision holes), the driller - reamer - reamer process is a typical processing scheme commonly used in production.


Boring

Boring is a machining method in which the prefabricated hole is enlarged with a cutting tool. The boring work can be carried out either on the boring machine or on the lathe.

1. Boring method

There are three different machining methods for boring.

(1) The workpiece rotates and the tool makes feed movement

Boring on the lathe mostly belongs to this boring method. The characteristics of the process are: the axis line of the hole after processing is consistent with the rotation axis of the workpiece, the roundness of the hole mainly depends on the rotation accuracy of the machine tool spindle, and the axial geometry error of the hole mainly depends on the position accuracy of the tool feed direction relative to the rotation axis of the workpiece. This boring method is suitable for machining holes with coaxial requirements on the surface of the outer circle.

(2) The tool rotates and the workpiece is fed

The boring machine spindle drives the boring tool to rotate, and the table drives the workpiece to feed.

(3) The tool rotates and makes feed motion

Using this kind of boring boring method, the overhanging length of the boring bar is changed, the force deformation of the boring bar is also changed, the aperture near the headstock is large, and the aperture away from the headstock is small, forming a cone hole. In addition, with the increase of the overhang length of the boring bar, the bending deformation of the main shaft caused by its own weight also increases, and the axis of the machined hole will have a corresponding bending. This boring method is only suitable for machining short holes.

2. Diamond boring

Compared with general boring, diamond boring is characterized by a small amount of back cutting, small feed, high cutting speed, it can obtain a high processing accuracy (IT7 ~ IT6) and a very smooth surface (Ra is 0.4~ 0.05μm). Diamond boring was originally processed with diamond boring tools, and is now commonly processed with cemented carbide, CBN and artificial diamond tools. Mainly used for processing non-ferrous metal workpieces, can also be used for processing cast iron and steel parts.

The commonly used cutting parameters of diamond boring are: pre-boring of 0.2~0.6mm and final boring of 0.1mm; The feed rate is 0.01~0.14mm/r; The cutting speed is 100~250m/min when processing cast iron, 150~300m/min when processing steel, and 300~2000m/min when processing non-ferrous metals.

In order to ensure that the diamond boring machine can achieve high machining accuracy and surface quality, the machine tool (diamond boring machine) must have high geometric accuracy and stiffness, the main shaft of the machine tool supports the commonly used precision angular contact ball bearing or static pressure plain bearing, and the high-speed rotating parts must be accurately balanced; In addition, the movement of the feed mechanism must be very smooth to ensure that the table can do smooth low-speed feed movement.

The machining quality of diamond boring is good, the production efficiency is high, and it is widely used in the final processing of precision holes in a large number of mass production, such as the engine cylinder hole, the piston pin hole, the main shaft hole on the spindle box of the machine tool. However, it should be noted that when machining ferrous metal products with diamond boring, only the boring tool made of cemented carbide and CBN can be used, and the boring tool made of diamond can not be used, because the carbon atoms in diamond have a large affinity with the iron group elements, and the tool life is low.

3. Boring tool

Boring tool can be divided into single-edge boring tool and double-edge boring tool.

4. Boring process characteristics and application range

Compared with the drilling, expanding and reaming process, the bore size is not limited by the tool size, and the boring has a strong error correction ability, and the deviation error of the original hole axis can be corrected by multiple cutting, and the boring can maintain a higher position accuracy with the positioning surface.

Compared with the outer circle of the boring, due to the poor rigidity of the tool bar system, large deformation, poor heat dissipation and chip removal conditions, the hot deformation of the workpiece and the tool is relatively large, and the processing quality and production efficiency of the boring are not as high as the outer circle of the car.

In summary, it can be seen that the processing range of boring is wide, and holes of different sizes and different precision levels can be processed. For holes and hole systems with large aperture, high size and position accuracy requirements, boring is almost the only processing method. The machining accuracy of boring is IT9 ~ IT7. Boring can be carried out on the boring machine, lathe, milling machine and other machine tools, which has the advantages of flexibility and flexibility, and is widely used in production. In mass production, boring die is often used to improve boring efficiency.




Honing hole

1. Honing principle and honing head

Honing is the method of finishing the hole by using a honing head with a grinding rod (whetstone). When honing, the workpiece is fixed, and the honing head is rotated by the spindle of the machine tool and moves in a reciprocating straight line. In honing processing, the grinding strip acts on the workpiece surface with a certain pressure, and cuts an extremely thin layer of material from the workpiece surface. In order to make the movement of the abrasive particle not repeat, the number of revolutions per minute of the turning movement of the honing head and the number of reciprocating strokes per minute of the honing head should be prime.

The cross Angle of the honing track is related to the reciprocating speed and circular speed of the honing head, and the size of the Angle affects the processing quality and efficiency of the honing. In order to facilitate the discharge of broken abrasive particles and chips, reduce the cutting temperature and improve the processing quality, sufficient cutting fluid should be used when honing.

In order to make the machined hole wall can be uniformly machined, the stroke of the sand bar at both ends of the hole must exceed a section of overpass. In order to ensure the uniform honing allowance and reduce the influence of the spindle rotation error on the machining accuracy, the floating connection between the honing head and the spindle of the machine tool is mostly adopted.

The radial expansion adjustment of honing head grinding rod has various structural forms such as manual, pneumatic and hydraulic.

2. Honing process characteristics and application range

(1) honing can obtain higher dimensional accuracy and shape accuracy, the processing accuracy is IT7~IT6, the roundness and cylindricity error of the hole can be controlled within the range, but honing can not improve the position accuracy of the hole to be machined.

(2) Honing can obtain a higher surface quality, the surface roughness Ra is 0.2~0.25μm, the surface metal metamorphic defect layer depth is very small 2.5~25μm.

(3) Compared with the grinding speed, the circular speed of the honing head is not high (vc=16~60m/min), but due to the large contact area between the sand bar and the workpiece, the reciprocating speed is relatively high (va=8~20m/min), so the honing still has a high productivity.

Honing is widely used in the machining of engine cylinder holes and precision holes in various hydraulic devices in a large number of mass production, and can process deep holes with a length-diameter ratio greater than 10. However, honing is not suitable for processing holes on non-ferrous metal workpieces with large plasticity, nor can it process holes with keyways, spline holes, etc.




Lacon

1. Broach and broach

Drawing is a high productivity finishing method, which is carried out on a broaching machine with a special broach. Broaching machine divided into horizontal broaching machine and vertical broaching machine two kinds, the horizontal broaching machine is the most common.

Broaching only uses low-speed linear motion (main motion). The number of teeth of the broach working at the same time should generally be not less than 3, otherwise the broach is not stable, and it is easy to produce ring ripples on the surface of the workpiece. In order to avoid generating too much broaching force and causing the broach to break, the number of teeth of the broach working at the same time should not exceed 6 to 8.

There are three different broaching methods, which are described as follows:

(1) Layered broaching

This broaching method is characterized by the broach cutting the workpiece machining allowance layer by layer in sequence. In order to facilitate chip breaking, the cutter teeth are ground with interleaved chip grooves. The broach designed according to the layered broaching method is called the ordinary broach.

(2) block broaching

The characteristic of this broaching method is that each layer of metal on the machined surface is cut by a set of tool teeth that are basically the same size but interlaced with each other (usually each set consists of 2-3 tool teeth). Each tooth cuts only part of a layer of metal. Broach designed according to the block broach method is called rotary broach.

(3) Comprehensive broaching

In this way, the advantages of layering and block broaching are concentrated. Block broaching is used in the rough cutting part and layer broaching is used in the fine cutting part. In this way, the broach length can be shortened, productivity can be increased, and better surface quality can be obtained. The broach designed according to the comprehensive broach method is called the comprehensive broach.

2. Process characteristics and application range of drawing holes

(1) The broach is a multi-edge tool, which can finish the roughing, finishing and finishing of the hole in a sequence in one broaching stroke, and has high production efficiency.

(2) The drawing accuracy mainly depends on the accuracy of the broach, under normal conditions, the drawing accuracy can reach IT9~IT7, and the surface roughness Ra can reach 6.3~ 1.6μm.

(3) When drawing a hole, the workpiece is positioned by the machined hole itself (the leading part of the broach is the positioning element of the workpiece), and the drawing hole is not easy to ensure the mutual position accuracy of the hole and other surfaces; For the processing of rotary parts whose inner and outer circular surfaces have coaxial requirements, it is often necessary to first pull holes, and then process other surfaces with holes as the positioning reference.

(4) broach can not only process round holes, but also process forming holes and spline holes.

(5) broach is a fixed size tool, complex shape, expensive, not suitable for processing large holes.

Drawing holes are commonly used in a large number of mass production to process holes on small and medium-sized parts with a diameter of 10~80mm and a hole depth of not more than 5 times the aperture.

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CNC machines offer precision machining to all. No matter what type of CNC machine it is that is being used, you can pretty much guarantee that it will offer precision machining that is absolutely unbelievable.
The machine itself is responsible for a lot of the precision; however, the operator and the programmers play a big role as well as the facility itself. Proper temperature control and good conditions allow for accuracy as much as 20 millionths in some instances.
Tolerances of CNC machines completely depend upon the type of CNC machine that is being used to complete the project. Each machine offers different tolerances. Of course a machine that operates off of several different axes will allow for closer, more specific tolerances. The four and five axes machines can produce specifically design parts that need precise measurements in order to work. Very tight tolerances are possible.
Exacting tolerances of 0.00004" to 0.004" is possible. (Otherwise, one to one hundred microns) Because these machines are computer numerical controlled (CNC) the possibility that production can be this precise is easy. No more do operators have to make sure that the placement of the material is precise and so on in order to achieve these standards. The computer technology can grind, cut, sand, etc to the dimensions specified by the program. They will be extremely close if not all the way there.
One of the great benefits of CNC machining is the ability of high tolerances on a repetitive basis. Because the machines are computer operated, repetitive work is easy to perform. The machine keeps running to the programs specifications until the work is complete. Another job that comes months down the road that has the same specifications can be performed easy. It just takes the downloading of the original program and the exact same specifications and tolerances will be repeated with this batch of work as well. Repetitive, high tolerance machining is one of the added benefits of CNC machining.
Tolerances are directly related to the quality of the CNC machines. This is why you will find that different companies who offer CNC machining services can offer different tolerances. Some may offer 0.001" tolerances and others will offer a variety of different tolerances. The higher the quality of the CNC machine and the programs that operate it, the better tolerance that you will be able to get.
Programmers, machinists, operators and the machines, have to work in direct relationship to one another. If all aspects are all the same page, the better the performance. If you have quality programmers and machinists, you will be able to get better performance out of your machines. It takes individuals who are skilled and knowledgeable in the area of CNC machining to perform to the best of the machines ability.
If you have any questions about ask your dealer of the CNC machines. They should be able to answer any questions that you may have and can explain the whole process better to you.

CNC machining process common problem points and improvement methods

Starting from the actual production, this paper summarizes the common problems and improvement ways of CNC machining process, and how to choose the three important factors of speed, feed rate and cutting depth in different application fields

The workpiece is over-cut
The reason:


Knife, tool strength is not enough too long or too small, resulting in knife.
Improper operation by the operator.
Uneven cutting allowance (such as: 0.5 on the side of the surface, 0.15 on the bottom)
Improper cutting parameters (such as: tolerance is too large, SF setting too fast, etc.)

Improvements:


The principle of using a knife: can be big or small, can be short or not long.
Add the clearing procedure, and the margin is as even as possible (the margin on the side and the bottom is the same).
Reasonable adjustment of cutting parameters, large margin corner round.
With the SF function of the machine, the operator fine-tunes the speed to achieve the best cutting effect.

The central question
The reason:


Operator manual operation is not accurate.
There are burrs around the mold.
The center bar has magnetic field.
The four sides of the mold are not vertical.

Improvements:


Manual operation should be carefully checked repeatedly, and the points should be at the same point and height as far as possible.
Remove burrs with a whetstone or file around the mold, wipe clean with a rag, and finally confirm with your hand.
Demagnetize the dividing rod before dividing the mold (ceramic dividing rod or other).
Check whether the four sides of the mold are vertical (if the verticality error is large, it is necessary to review the plan with the fitter).

The knife problem
The reason:


Operator manual operation is not accurate.
Tool clamping error.
The blade on the knife is wrong (the knife itself has a certain error).
There is an error between R knife and flat knife and flying knife.

Improvements:


Manual operation should be carefully checked repeatedly, and the knife should be at the same point as possible.
Blow clean with air gun or wipe clean with rag when clamping the tool.
One blade can be used when the blade on the flying knife is to measure the rod and light the bottom surface.
A separate knife program can avoid the error between R knife flat knife flying knife.

The crash - programming
The reason:


The safety height is not enough or not set (the knife or chuck hits the workpiece when the fast feed G00).
The tool on the program list and the actual program tool are written wrong.
The tool length (blade length) and the actual machining depth on the program list are wrong.
The depth Z-axis fetch number and the actual Z-axis fetch number on the program are written incorrectly.
The coordinates are set incorrectly during programming.

Improvements:


Accurate measurement of the height of the workpiece also ensures that the safety height is above the workpiece.
The tool on the program list should be consistent with the actual program tool (try to use the automatic program list or use the picture program list).
Measure the actual depth of machining on the workpiece, write the length of the tool and the length of the blade on the program sheet (generally, the tool clip length is 2-3MM higher than the workpiece, and the blade length avoidance is 0.5-1.0MM).
Take the actual Z-axis number on the workpiece and write it clearly on the program sheet. (This operation is generally written manually to check repeatedly).

Crash machine - Operator
The reason:


Depth Z-axis alignment error ·
The number of touch and operation errors (such as: unilateral access without feed radius, etc.).
Use the wrong knife (such as: D4 knife with D10 knife to process).
The program goes wrong (for example: A7.NC goes A9.NC).
The hand wheel is rotated in the wrong direction during manual operation.
Press the wrong direction (for example, -X +X) during manual fast feed.

Improvements:


Depth Z-axis knife must pay attention to the position of the knife. (bottom, top, analysis, etc.).
Check the number of touch and operation repeatedly after completion.
When installing the tool, it should be installed after repeated check with the program list and the program.
The program should go one by one in order.
In the manual operation, the operator should strengthen the operation proficiency of the machine tool.
In the manual fast movement, you can first raise the Z axis to the workpiece above the move.

Surface accuracy
The reason:


The cutting parameters are unreasonable and the workpiece surface is rough.
The edge of the tool is not sharp.
The tool clamping is too long, and the blade is too long.
Chip removal, air blowing, oil flushing is not good.
Programming cutting mode, (you can try to consider going down milling).
The workpiece has burrs.

Improvements:


Cutting parameters, tolerances, allowance, speed feed Settings should be reasonable.
The tool requires the operator to check and replace it periodically.
When installing the tool, the operator is required to clip as short as possible, and the blade should not be too long.
For the lower cut of flat knife, R knife and round nose knife, the speed feed setting should be reasonable.
The workpiece has burrs: the root of our machine tools, tools, and cutting methods are directly related. Therefore, we need to understand the performance of the machine tool and repair the edge with burrs.

The blade is broken
Reasons and improvements:

1. Feed too fast

-- Slow down to a suitable feed speed

2. Feed too fast at the beginning of cutting

-- Slow down the feed rate at the beginning of cutting

3. Clamp loosely (knife)

-- Clamp

4. Clamping loose (workpiece)

-- Clamp

5. Insufficient rigidity (tool)

-- Use the shortest knife allowed, a little deeper in the grip, and try downmilling

6. The cutting edge of the tool is too sharp

- Change the fragile cutting edge Angle, one edge

7. Insufficient rigidity of machine tools and tool handles

-- Use a rigid machine tool and a tool handle

Wear and Tear
Reasons and improvements:

1. Machine speed is too fast

- Slow down and add enough coolant

2. Harden the material

-- Use advanced tools and tool materials to increase surface treatment

3. Chip adhesion

- Change the feed speed, chip size or clean the chip with cooling oil or air gun

4. Improper feed speed (too low)

-- Increase feed speed and try downmilling

5. The cutting Angle is not suitable

- Change to the appropriate cutting Angle

6. The first back corner of the knife is too small

-- Change to a larger back Angle

Destruction
Reasons and improvements:

1. Feed too fast

-- Slow down the feed rate

2. The cutting amount is too large

-- Use smaller cutting amounts per edge

3. Blade length and full length are too large

- Deep grip, with a short knife, try to mill down

4. Too much wear and tear

-- Regrind at an early stage

Vibration marks
Reasons and improvements:

1. Feed and cutting speed is too fast

- Correct feed and cutting speed

2. Insufficient rigidity (machine tools and tool handles)

- Use better machine tools and tool handles or change the cutting conditions

3. The rear Angle is too large

- Change to a smaller back Angle, machining the edge belt (oil stone grinding once)

4. Clamp loosely

-- Clamp the workpiece

◆ Consider speed, feed

The relationship between the three factors of speed, feed and cutting depth is the most important factor to determine the cutting effect, inappropriate feed and speed often lead to reduced production, poor workpiece quality, tool damage.

Use the low speed range for:


High hardness material
Headstrong big material
Hard to cut material
Heavy cut
Minimal tool wear
Maximum tool life

Use the high speed range for:


Soft material
Good surface quality
Smaller tool diameter
Light cut
Large brittle workpiece
Manual operation
Maximum processing efficiency
Non-metallic material

Use high feeds for:


Heavy, rough cutting
Rigid construction
Machinable material
Roughing tool
Surface cutting
Low tensile strength material
Coarse tooth milling cutter

Use a low feed for:


Light machining, fine cutting
Brittle structure
Difficult material
Small cutter
Deep vertical groove machining
High tensile strength material
Finishing tool

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With the rapid development of advanced technology, the CNC custom machining industry is taking great strides in the direction of high intelligence. The application of innovative technologies such as intelligent sensors, intelligent monitoring systems and automated programming software makes the processing process more accurate, efficient and reliable. Many enterprises have increased investment in intelligent equipment, such as Honscn introduced the most advanced intelligent machining center, not only to achieve unattended long-term continuous operation, but also to analyze data in real time, optimize processing parameters, greatly improving production efficiency and product quality.
In terms of customization, the continuous growth of market demand is driving the in-depth development of the industry. Today, consumers are increasingly hungry for personalized products, whether in aerospace, automotive manufacturing or electronic devices, there is a high demand for unique components and products. CNC custom processing enterprises respond positively, through flexible production mode and exquisite technology, to meet the customer's various creative customization needs. Honscn has successfully created exclusive high-precision parts for many well-known enterprises by virtue of its excellent customization capabilities, and has won widespread praise and market share.


Digital transformation has also become one of the key trends in the CNC custom machining industry. With technologies such as big data, cloud computing and the Internet of Things, enterprises can achieve comprehensive monitoring and management of production processes, from order receipt, process design to production and processing and quality inspection, and can achieve digital collaboration and optimization. At the same time, digitization also provides enterprises with a huge amount of data resources. By analyzing these data, enterprises can better understand the market dynamics and customer needs, so that they can make more informed decisions. Honscn uses the digital platform to achieve efficient docking with suppliers and customers, greatly shortening the production cycle, and enhancing the competitiveness of the enterprise.
In addition, the concept of green sustainable development is also deeply affecting the CNC custom processing industry. Enterprises are paying more and more attention to energy conservation and emission reduction, using environmentally friendly materials and green processes. Many companies have begun to develop and apply energy-saving equipment to reduce energy consumption and waste emissions by optimizing processing processes. For example, Honscn is committed to developing new environmentally friendly processing technologies, which not only reduces the impact on the environment, but also brings good economic and social benefits to the enterprise.
Industry experts pointed out that the future CNC custom machining industry will continue to accelerate on the road of intelligence, customization, digitalization and green. This requires not only the continuous technological innovation and management upgrading of enterprises, but also the joint support and efforts of the government, scientific research institutions and all sectors of society. The government should increase policy support and capital investment for the industry and encourage enterprises to carry out R&D and innovation activities. Scientific research institutions should strengthen cooperation with enterprises to promote the transformation and application of scientific and technological achievements; all sectors of society should also improve their awareness and attention to the industry and create a good atmosphere for its development.
One notable example is Honscn, which recently utilized CNC custom machining to create intricate components for the aerospace industry. Their highly precise manufacturing process enabled the production of lightweight yet durable parts that are crucial for aircraft performance. These custom parts not only met the strictest quality standards but also contributed to enhanced fuel efficiency and overall safety.
Another case is Honscn in the medical field. They employed CNC custom machining to fabricate custom surgical instruments with exacting specifications. The resulting tools offer surgeons greater precision and control during complex procedures, improving patient outcomes and care.
In the automotive sector, Honscn used CNC custom machining to produce unique engine parts that optimized engine performance and efficiency. These custom-engineered components gave their vehicles a competitive edge in the market.






Here are some trends in the CNC custom machining industry




Technology upgrading: The CNC custom machining industry will continue to introduce new technologies, such as artificial intelligence, Internet of Things, big data, etc., to improve production efficiency, processing accuracy and quality.


Increased automation: With the development of automation technology, CNC custom machining equipment will become more intelligent and automated, enabling automated production, monitoring and adjustment.


Increased demand for customization: Increasing consumer demand for personalized products will drive the CNC custom machining industry to become more flexible and diversified to meet the needs of different customers.


Green manufacturing: Increased environmental awareness will encourage the CNC custom machining industry to adopt more environmentally friendly materials and processes, reducing the impact on the environment.


Industry consolidation: As market competition intensifies, there may be consolidation in the CNC custom machining industry, and some small enterprises may be acquired or merged by large enterprises to improve market competitiveness.


High-end development: The CNC custom machining industry will gradually develop to high-end, producing higher precision and more complex products to meet the needs of high-end fields such as aerospace and medical.


Global layout: In order to reduce costs and expand the market, CNC custom machining companies may be laid out on a global scale to establish production bases and sales networks.




Some of Honscn's advantages in CNC machining




High precision and high quality: We have advanced CNC equipment and exquisite technology, to ensure that the processed products have high precision and stable quality, to meet a variety of strict standards and requirements.


Efficient production capacity: Through optimized processing process and automated equipment, we have fast and efficient production capacity, can deliver customer orders in time, shorten the production cycle, and improve customer satisfaction.


Rich processing experience: Over the years, we have focused on the field of CNC machining and accumulated rich industry experience. Whether it is complex parts or special workpieces, we can cope with it freely and provide reliable processing solutions.


Customized services: According to the individual needs of customers, flexible adjustment of processing programs to achieve unique customized production to meet the diverse needs of different customers in different fields.


Strict quality control: A sound quality control system has been established, from raw material procurement to processing and then to finished product inspection, layers of control to ensure that each product achieves excellent quality.


Advanced technical team: Our technical team continues to learn and explore the latest technologies, and can apply new technologies to production in a timely manner to maintain a leading position in the industry.


Cost benefit advantage: Through optimizing production management and resource allocation, effectively control costs under the premise of ensuring quality, and provide customers with cost-effective products and services.


Good customer service: always uphold the concept of customer first, provide a full range of customer service, maintain close communication with customers, solve customer problems in a timely manner, and establish long-term stable cooperative relations.


Innovation ability: Encourage innovative thinking, can constantly improve processing technology and methods, to provide customers with more innovative and competitive products.


Stable supply chain: We have established long-term cooperative relations with high-quality raw material suppliers to ensure the stable supply of raw materials and provide a strong guarantee for production.


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