欢迎词

Time of issue:2021-10-21 10:18:11
language
中国
韩国
韩国
韩国
韩国
韩国
SEARCH
Confirm
Cancel
/
/
/
What are the processing types of stainless steel products?
Check category

What are the processing types of stainless steel products?

  • Categories:Industry Dynamics
  • Author:
  • Origin:
  • Time of issue:2022-02-17 17:48
  • Views:0

(Summary description)With the development of stainless steel technology, the various advantages of stainless steel are becoming more and more popular.

What are the processing types of stainless steel products?

(Summary description)With the development of stainless steel technology, the various advantages of stainless steel are becoming more and more popular.

  • Categories:Industry Dynamics
  • Author:
  • Origin:
  • Time of issue:2022-02-17 17:48
  • Views:0
Information
With the development of stainless steel technology, the various advantages of stainless steel are becoming more and more popular. As a result, many products are now starting to use stainless steel as a raw material. Of course, in addition to stainless steel products with fixed specifications, many companies or individuals prefer some original customized stainless steel products, so they hope to have a certain understanding of the processing of stainless steel products. Customized selection of suitable stainless steel product processing plants.
 
1. Processing of stainless steel products:
 
1. First, stainless steel products need to be made of certain parts before they are manufactured, and then large-scale stainless steel products are completed by assembly and welding of parts. The machining of these stainless steel parts is mostly very basic stainless steel sheet machining. Namely, cutting, folding, planing, punching and laser cutting. Of course, if customers have requirements on the surface of stainless steel products, the factory will also process raw materials appropriately, such as stainless steel plates and tubes, to achieve the desired effect.
 
2. The processing price of stainless steel products has a certain relationship with many factors. First is the raw material. Due to different processing techniques and advantages, stainless steel is divided into many different types. Among them, 304, 201, etc. are relatively common. If the customer needs, the material is special, and the price of stainless steel material fluctuates according to the choice of material. In addition to raw materials, differences in the processing technology of stainless steel products can also cause price fluctuations. After knowing the price, we can query the price of each link in different situations, and then combine them.
 
3. In addition, due to the stainless steel processing technology and the factory equipment of the stainless steel product processing plant, the finished product will be uneven. Therefore, when choosing a stainless steel product processing factory, you must pay attention to choosing a regular enterprise to ensure that the quality of the products obtained is reliable.
 
Second, the commonly used processing technology of stainless steel products:
 
1. The surface, shape and properties obtained after post-processing the original shape of stainless steel are suitable for industrial stainless steel products. Such as: commonly used processing flat, slitting, and then surface treatment, wire drawing, sandblasting, frosting, mirror, color electroplating and coating. Further processing includes laser, shearing, bending, grooving, stamping, welding, polishing, etc.
 
2. Introduce the original surface and shape of stainless steel: stainless steel coils (usually from large steel mills in the form of steel coils). Stainless steel coils are divided into cold rolled and hot rolled surfaces. The thickness of cold rolled stainless steel is usually less than 3mm, also known as sheet. The total thickness of the hot-rolled plate is 3mm-75mm, and it is divided into medium and heavy plates according to different thicknesses. Stainless steel cold rolling: The steel plate is a stainless steel plate produced by cold rolling process, the conventional thickness is 0.1mm-3mm sheet, (our company can cold-roll 8mm sheet) for making corrosion-resistant materials, parts, pipes, containers in the petroleum and chemical industries , medical equipment, marine equipment, etc.
 
3. Stainless steel hot-rolled sheet: Hot-rolled sheet is also called NO.1, industrial surface, original surface: NO.1 surface that has been pickled after heat treatment and hot rolling. Generally used for cold-rolled materials, industrial tanks, chemical equipment, etc., thickness from 3.0MM-75.0MM
 
3. Slitting of stainless steel coils: According to large stainless steel coils, it is divided into small coils, which are usually used for pipe production or stamping products, gaskets, parts, etc.
 
4. Stainless steel plate: Flatten the large steel coil to the corresponding required size, the general market is: 1000 * 2000 1220 * 2440 1220 * 3050 1500 * 3050 1500 * 6000 and other length and width dimensions, in addition, it can also be adjusted according to needs Flatten and extend. Secondly, the application of stainless steel materials is more and more extensive, and the requirements for appearance and surface are also higher and higher, and there are more and more styles. For example, some decorative projects have particularly demanding surfaces.
 
1. Surface treatments include wire drawing, frosting, sandblasting, chaotic lines, etching, embossing, mirror finish, electroplating, no fingerprints, etc. (Typically, surface-treated stainless steel materials will have a protective film attached).
 
2. Stainless steel product processing, product processing includes laser, bending, welding, grooving, grinding, polishing and multiple processing steps to obtain final shaped stainless steel products, which are common in the market.
 
3. The processing of stainless steel products can be designed according to customer needs, or according to the requirements of samples or drawings provided by users.
 
5. By analyzing the above processing difficulties, the processing technology of stainless steel and the design of related tool parameters should be very different from ordinary structural steel materials. The specific processing technology is as follows:
 
1. Drilling: During the drilling process, it is difficult to machine holes due to the poor thermal conductivity and small elastic modulus of stainless steel materials. In order to solve the hole processing problem of this material, it is mainly to select the appropriate tool material for drilling processing
 
(1) Selection of tool material Due to the large cutting force and high cutting temperature when machining stainless steel parts, cemented carbide with high strength and good thermal conductivity should be selected.
 
(2) For the processing of hardened parts of such materials, CBN (cubic boron nitride) inserts can be used. The hardness of CBN is second only to diamond, it can reach 7000~8000HV, and its wear resistance is extremely high. Compared with diamond, cubic boron nitride has outstanding advantages. The heat resistance is much higher than that of diamond, which can reach 1200°C and can withstand higher cutting temperatures. In addition, it is chemically inert and has no chemical action against iron group metals at 1200-1300°C, making it ideal for machining stainless steel materials. Tool life is dozens of times that of carbide or ceramic tools.
 
(3) Tool geometry parameters play an important role in its cutting performance. For fast and smooth cutting, carbide tools should use a larger rake angle to prolong tool life. Typically, the rake angle is 10°-20° for roughing, 15°-20° for semi-finishing, and 20°-30° for finishing. The basis for selecting the entry angle is that when the rigidity of the processing system is good, it can be 30°~45°; if the rigidity of the processing system is poor, it can be 60~75°. When the aspect ratio of the workpiece exceeds 10 times, it can be 90°.
 
(4) In most cases, ceramic tools are cut with a negative rake angle when boring stainless steel materials with ceramic tools. Usually, the rake angle should be -5°~-12°. This will help strengthen the blade and take full advantage of the higher compressive strength of ceramic tools. The size of the relief angle directly affects the wear of the tool and also the strength of the blade. Usually choose 5°~12°. Changes in the entry angle will affect the radial and axial cutting part changes, as well as the size of the cutting width and cutting thickness. Since the vibration of the machining system is extremely detrimental to ceramic tools, the selection of the entry angle should be beneficial to reduce this vibration, usually 30°~75°. When using CBN as the tool material, the geometric parameters of the tool are 0°~10° for the rake angle, 12°~20° for the relief angle, and 45°~90° for the entry angle.
 
(5) The roughness of the rake face should be small during grinding. To avoid chip sticking, the front and sides of the tool should be sharpened carefully to ensure that the roughness values ​​are small, reducing resistance to chip flow and preventing chips from sticking to the knife.
 
(6) The blade of the tool should be kept sharp. The edge of the tool should be kept sharp to reduce work hardening. The feed rate and backcut should not be too small to prevent the tool from cutting into the hardened layer and affecting tool life.
 
(7) Pay attention to the grinding of the chip breaker. Due to the ductile nature of stainless steel chips, the chip breaker on the rake face of the tool should be properly ground to interrupt, contain and facilitate chip removal during cutting.
 
(8) Selection of cutting parameters According to the characteristics of stainless steel materials, it is recommended to choose a cutting method of low speed and large feed.
 
(9) The selection of cutting fluid should be appropriate. Since stainless steel has the characteristics of easy bonding and poor heat dissipation, it is very important to choose a cutting fluid with good anti-adhesion and heat dissipation properties when boring, such as choosing a cutting fluid with a high chlorine content. , and mineral oil and sulfite-free aqueous solutions with good cooling, cleaning, rust and lubricating properties, such as H1L-2 synthetic cutting fluid.
 
The above processing method can overcome the difficulties of stainless steel processing, greatly improve the tool life of stainless steel in the process of drilling, reaming and boring, reduce the number of sharpening and replacement tools in the operation, and improve the production efficiency and hole processing quality. Satisfactory results can be achieved in reducing labor intensity and production costs.

Scan the QR code to read on your phone

LATEST NEWS

The Role of Stainless Steel Carbon Steel Alloys in Reducing Carbon Footprint

Explore the transformative impact of stainless steel and carbon steel alloys on sustainability and environmental stewardship. This comprehensive guide delves into how these materials can effectively r
2026-01-21

Acceleration of Import Substitution for Domestic High-End CNC Machine Tools in the Aluminum Alloy Machining Field

Acceleration of Import Substitution for Domestic High-End CNC Machine Tools in the Aluminum Alloy Machining Field Amid the reshaping of the global manufacturing competitive landscape and the grand narrative of China's manufacturing sector climbing the value chain, a silent yet crucial battleground is undergoing profound transformation: the field of high-end CNC machining for aluminum alloys. For a long time, the market for key equipment such as five-axis machining centers and high-speed, high-precision milling centers serving high-end industries like aerospace, new energy vehicles, and precision electronics was firmly dominated by a handful of giants from Germany, Japan, and other countries. Today, this landscape is being disrupted. Domestic high-end CNC machine tools are not only steadily increasing their market share but are also achieving a leap from "usable" to "easy to use," and even to "leading" in certain fields in terms of technical performance, stability, and solution capabilities, marking a significant acceleration in the import substitution process. I. Market Demand: Lightweight Wave Spurs Trillion-Level Processing Needs, Highlighting Demands for Local Supply Chain Security The primary driver of accelerated substitution stems from the massive and urgent demand generated by the explosive growth of downstream industries. The "Heart" and "Skeleton" of New Energy Vehicles: Vehicle lightweighting is a core pathway to extending range. Key components of new energy vehicles, such as battery trays, motor housings, and subframes, extensively use aluminum alloys, featuring complex structures, high precision requirements, and fast production cycles. Taking the battery tray after integrated die-casting as an example, its subsequent precision machining (e.g., positioning holes, sealing surfaces, connection points) requires five-axis machine tools with large working envelopes, high rigidity, and high dynamic response. The rapid scaling and cost control pressures of domestic new energy vehicle manufacturers impose stringent requirements on equipment procurement costs, delivery cycles, and after-sales service responsiveness. This has opened a critical time window for domestic equipment offering higher cost-performance and agile service. The Rigid Demand for Autonomy and Controllability in Aerospace and Defense: Aerospace structural components (e.g., frames, beams, ribs) extensively use high-strength aluminum alloys. Their machining involves top-tier processes like high-speed cutting, deep cavity machining, and thin-wall deformation control, placing extremely high demands on machine tool geometric accuracy, thermal stability, and reliability. Under the national strategy of ensuring supply chain security and core technology autonomy/controllability, domestic high-end machine tools have gained valuable "entry tickets" and proving grounds. By undertaking supporting tasks for major national projects, they have achieved the tempering and validation of technological capabilities. The Pursuit of Ultimate Efficiency in the 3C Electronics Industry: The iteration cycles for consumer electronics products like smartphone mid-frames, tablet casings, and laptop housings are extremely short, requiring processing equipment to possess very high spindle speeds (often 20,000 - 40,000 RPM or higher), excellent surface finish capabilities, and reliability for 24/7 uninterrupted stable operation. The vast domestic 3C industry chain provides large-scale application scenarios for domestic high-speed drilling and tapping centers, enabling rapid iterative upgrades through real-world application. II. Technological Breakthroughs: Building Systematic Capabilities from "Imitation and Following" to "Independent Innovation" Behind import substitution lies substantial breakthroughs made by domestic machine tool manufacturers in core technology areas, forming the foundation for substitution confidence. Critical Progress in the Localization of Core Functional Components: Key functional components that were long constrained, such as high-performance CNC systems, high-precision servo drives and motors, high-rigidity motorized spindles, and high-precision rotary tables, have seen the emergence of a batch of excellent suppliers like Huazhong CNC, Guangzhou CNC, and Haozhi. Their products, in areas like high-speed, high-precision control algorithms, dynamic error compensation, and thermal deformation compensation, are approaching international advanced levels, laying the groundwork for whole-machine performance leaps. Deepening of Specialized Technologies for Aluminum Alloy Machining: Domestic machine tool enterprises are no longer limited to universal models but are conducting in-depth development targeting the characteristics of aluminum alloy materials. For example: Extreme High-Speed Dynamic Performance: Optimizing the machine tool's mechanical structure, adopting lightweight moving components, and pairing th
2026-01-16

Understanding Special Shaped Stainless Steel and Carbon Steel Alloys for Advanced Applications

This article explores the unique properties and applications of special shaped stainless steel and carbon steel alloys, highlighting their significance in various industries, especially in metallurgy
2026-01-14

Regional industrial policy scan: Which cities are emerging as new "beacons" of precision manufacturing?

Regional industrial policy scan: Which cities are emerging as new "beacons" of precision manufacturing? From micrometer-sized gears to components for satellite internet, an industrial revolution in precision manufacturing is quietly taking shape in several Chinese cities.  Inside the intelligent production workshop, steel sparks fly and robotic arms move gracefully. The fully automated production line churns out a mobile phone every 28.5 seconds, while the AI simulation system conducts tens of thousands of simulation tests every second.  At another factory not far away, AI-driven welding quality control and reconfigurable workstations have achieved a punctual delivery rate of 98.4% and a net promoter score of 84.9 for customers. These scenarios are not science fiction; they are happening in "lighthouse factories" and "intelligent manufacturing communities" in many Chinese cities, marking a new era for precision manufacturing.  Taking the "Lighthouse Factory", the top benchmark in global manufacturing, as a reference, we can see that regions represented by Shenzhen, Suzhou, Changzhou, Hangzhou, Changsha, and Songjiang District of Shanghai are becoming new "lighthouses" guiding the future of China's precision manufacturing, thanks to their differentiated industrial policies and profound ecological accumulation.  01 Innovation Benchmark: The Resonance of "Lighthouse Factories" and Regional Industrial Competitiveness The "Lighthouse Factories" selected by the World Economic Forum have become a hard-core benchmark for measuring whether a region's manufacturing industry possesses world-class competitiveness.  These factories are leading in digital transformation, intelligent manufacturing and green sustainable development, and can drive the entire supply chain to make coordinated progress.  China has performed outstandingly in this field. As of September 2025, the number of Chinese factories listed in the global lighthouse factory network has occupied a significant share. The geographical distribution of these factories clearly outlines the "lighthouse" map of China's precision manufacturing.  In September 2025, Changzhou witnessed a glorious moment: The Mettler-Toledo Changzhou Taihu Road Factory and the Eaton Power Equipment Manufacturing Factory were simultaneously selected, increasing the number of "Lighthouse Factories" in Changzhou to three.  Shenzhen boasts three world-class "lighthouse factories", including Foxconn Industrial Internet, Foxconn, and Valeo, forming the top echelon of its intelligent manufacturing.  These "beacons" are not isolated star enterprises; behind them lies systematic support from the city's industrial ecosystem, precise policy nurturing, and innovative capabilities.  The three "Lighthouse Factories" in Changzhou cover the fields of power batteries, precision instruments and power equipment. Their full-process intelligent application from R&D to production demonstrates the hard-core strength of "Changzhou Manufacturing" in multiple high-end tracks.  02 Model Divergence: The Urban Agglomerations of Precision Manufacturing on Different Paths The "new beacons" of China's precision manufacturing do not follow a single development model. Instead, they have explored distinctive paths to rise based on their own resource endowments and industrial foundations.  Path One: Technology Ecosystem-Driven - The "Twin Giants" of Shenzhen and Suzhou The representative cities of this path boast top-tier clusters of technology enterprises and forward-looking industrial policies, with the aim of setting the standards for future manufacturing.  Shenzhen's strategy is "benchmark leading, echelon following", and its strength lies in the extremely efficient industrial chain collaboration. For instance, in the field of humanoid robots, the localization rate of components in Shenzhen can reach 70%, and the vast majority can be found within a one-hour drive. The latest research results can be sent to enterprises across the street for rapid verification.  Its policy support is extremely precise. For the high-end equipment industry, it has established a comprehensive funding plan covering major technological breakthroughs, the promotion of the first (or first batch) of equipment, and the construction of industrial platforms. Each project can receive support ranging from 3 million to 10 million yuan.  Suzhou, with its grand scale and ambition, is like a dancing elephant. As a giant with a total industrial output value of nearly 5 trillion yuan, Suzhou aims to build itself into a globally leading "smart manufacturing city" by 2035.  The core of the 2026 action plan is "AI + manufacturing", with the aim of dynamically cultivating 150 industrial vertical large models and setting a target of adding 180 national-level specialized, refined, distinctive and innovative "little giant" enterprises. Its development logic is to rely on the vast manufacturing base and empower the entire domain through arti
2026-01-09

Hello!

Thank you for coming to OKL's official website. For any enquires please contact us.  

底部联系方式

发布时间:2021-10-21 10:29:09

ADD.:Building 1, No. 999, Xingguang Avenue, Yongchuan District, Chongqing. China.

Tel:+86-13728736713

Email:info@oklymechan.com

QR Code

Quick Links

Feedback

Username used for comment:
客户留言
Description:
验证码

底部版权

Time of issue:2017-12-23 00:00:00

© 2022 Okly (ChongQing) Mechan Technology Co., Ltd. All Rights Reserved. 渝ICP备2022003158号-1 Powered by:www.300.cn  seo Tag

手机版地址版权

Time of issue:2021-10-21 10:46:04

© 2022 Okly (ChongQing) Mechan Technology Co., Ltd.

渝ICP备2022003158号-1 Powered by:www.300.cn

seo Tag