Metalworking Machines

Shanghai Yi Ze Trading Co., Ltd: Your Professional Metalworking Machines Manufacturer!
 

Shanghai Yi Ze Trading Co., Ltd is a leading service provider for the manufacturing industry, specializing in offering comprehensive solutions for product processing and inspection. As a subsidiary of Japan's prestigious Yi Sogyo Kabushiki Kaisha, our company boasts an extensive range of machine tools and cutting-edge CNC tooling. Our product lineup includes state-of-the-art machinery such as vertical and horizontal machining centers, high-speed drilling and tapping centers, turning and milling machines, grinding machines, turret lathes, deep hole drilling machines, boring and milling machines, laser cutters, bending machines, sawing machines, gear hobbing machines, gear grinding machines, injection molding machines, and automated assembly lines. In addition to our top-notch equipment, we also provide a wide selection of precision CNC tools designed for various applications including turning, milling, drilling, threading, gear manufacturing, boring, and deep hole processing. These high-quality tools are essential for enhancing productivity and ensuring superior results in manufacturing processes.

Quality Assurance

Shanghai Yi Ze Trading Co., Ltd ensures top-notch product quality by adhering to industry-standard quality systems and specifications. We use cutting-edge inspection equipment to guarantee the reliability and excellence of our products. This commitment to quality not only maintains our strong reputation in the market but also assures our customers of receiving the best manufacturing solutions available. Our rigorous quality assurance processes are integral to delivering superior products that meet the highest standards.

Wide Product Range

Shanghai Yi Ze Trading Co., Ltd offers a wide range of products for the manufacturing industry. Our product lineup includes various machine tools such as vertical and horizontal machining centers, high-speed drilling and tapping centers, turning and milling machines, grinding machines, turret lathes, deep hole drilling machines, boring and milling machines, laser cutters, bending machines, sawing machines, gear hobbing machines, gear grinding machines, injection molding machines, and automated assembly lines. In addition to these high-quality equipment options, we also provide an extensive selection of precision CNC tools designed for different applications including turning, milling, drilling, threading, gear manufacturing, boring, and deep hole processing. This diverse product offering ensures that our customers have access to everything they need for their manufacturing processes under one roof.

Wide Range of Applications

Shanghai Yi Ze Trading Co., Ltd offers a wide range of products that are used in various industries. Our machine tools and precision tools are essential for processing and manufacturing applications across different sectors such as automotive, aerospace, medical devices, transportation equipment, and more. These high-quality products help our customers achieve efficient production processes while maintaining strict quality control standards. With our diverse product offerings, we ensure that our clients have access to the right tools and equipment needed for their specific industrial applications.

Professional Service

Shanghai Yi Ze Trading Co., Ltd provides professional services tailored to meet customer needs. We recommend suitable processing equipment and offer solutions based on specific product requirements. Our turnkey projects ensure complete satisfaction from start to finish. Regular communication with clients about production status and progress keeps them informed and prepared for deliveries. Rigorous adherence to technical agreements guarantees reliable after-sales support and warranty services. This commitment to excellence makes us a trusted partner in the manufacturing industry.

 

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Brief introduction to Metalworking Machines

 

 

Metalworking Machines are essential tools and equipment used to process metal materials. These machines utilize various techniques such as cutting, shaping, forming, welding, and finishing to transform metal into the desired shape and size. From lathes and milling machines to laser cutters and CNC (Computer Numerical Control) machines, each piece of equipment serves a specific purpose in the metalworking process. Lathes are used for rotating and cutting cylindrical workpieces, while milling machines shape metal by moving a spindle with an attached cutting tool. Laser cutters provide precision cutting by directing a focused beam of light at high power onto the material's surface. CNC machines offer automation and accuracy through computer-controlled operations. Together, these machines enable efficient and precise metal processing, making them indispensable in industries like automotive, aerospace, and manufacturing.

 

Features of Metalworking Machines
 

High Productivity
Metalworking Machines are essential tools in various industries. They ensure top-notch precision and high-quality products, especially CNC lathes. These machines automate processes, reducing manual errors and enhancing accuracy. As a result, production speed increases significantly. With Metalworking Machines, companies can produce more products in less time. This leads to higher efficiency and productivity. Therefore, investing in advanced Metalworking Machines is crucial for businesses aiming to stay competitive and meet market demands effectively.

 

High Speed
Metalworking Machines are known for their high speed. They can produce many products quickly, especially CNC and automatic lathes. These machines operate at fast production speeds, allowing companies to meet tight deadlines. As a result, Metalworking Machines increase efficiency and output. They help businesses stay competitive by reducing lead times. Therefore, investing in high-speed Metalworking Machines is essential for maximizing productivity and meeting market demands effectively.

 

Time and Money Savings
Metalworking Machines offer significant time and money savings. They reduce the need for many operators or machinists, lowering labor costs. These machines automate processes, minimizing manual intervention. As a result, processing times are shorter, leading to faster production cycles. Metalworking Machines also enhance precision, reducing waste and errors. This efficiency translates into cost savings for companies. Therefore, investing in Metalworking Machines is a smart choice for businesses looking to optimize their operations and boost profitability.

 

Skilled Operators Required
Metalworking Machines require skilled operators to function effectively. Although only a few machinists are needed, their expertise is crucial for precision control and continuous supervision. The accuracy of the work largely depends on the skill of the machinist/operator. Highly skilled operators ensure that Metalworking Machines produce high-quality products consistently. Therefore, investing in training and retaining skilled machinists is essential for maximizing the potential of these machines and maintaining product quality standards.

 

High Cost and Weight
Metalworking Machines come with a high cost and significant weight. The initial investment for these machines can be substantial, especially for large companies that require advanced models. Depending on the purpose and volume, most machines used by big enterprises can cost up to $50,000. These machines also occupy considerable space in the workshop, adding to the operational costs. Additionally, Metalworking Machines often require additional accessories, which further increases their size and expense. For this reason, CNC lathes are not recommended for small batch production due to their high cost and the need for extensive setup. Therefore, while Metalworking Machines offer numerous benefits, businesses must carefully consider these factors before making a purchase.

 

Ongoing Maintenance
Metalworking Machines require ongoing maintenance to function properly. Every critical component needs proper care to avoid damage. Regular upkeep ensures the longevity of these machines. Neglecting maintenance can lead to part failures or even machine breakdowns. This can disrupt production and cause costly repairs. Therefore, continuous maintenance is essential for Metalworking Machines. It helps prevent unexpected downtime and extends the lifespan of the equipment. Investing in regular maintenance is crucial for maximizing the performance and reliability of Metalworking Machines.

 

Limited Structures and Shapes
Metalworking Machines excel at creating cylindrical shapes but have limitations in the variety of structures they can produce. Typically, only one tool can be used at a time, restricting versatility. This limitation affects the range of shapes and structures that can be created with these machines. While Metalworking Machines are highly effective for specific tasks, their inability to handle diverse shapes limits their application. Therefore, while they are indispensable tools in metal fabrication, their functionality is confined to certain types of work due to these constraints.

 

Main Parts of Metalworking Machines
Single-column Vertical Lathe
Vertical Lathe
CNC Heavy Duty Horizontal Lathe
CNC Deep Hole Skiving and Burnishing Machine

Bed
The bed of a lathe serves as the fundamental structure, supporting all other components and reducing vibrations during operation. Typically made from cast iron, it provides strength and rigidity essential for precision machining. There are several types of beds designed for specific applications. A flat bed, characterized by its rigid, flat structure, supports the spindle, tailstock, and slideways, making it suitable for general use. A gap bed features a removable section near the spindle, accommodating larger workpieces and facilitating machining of large diameters. A slant bed is angled to position cutting tools at an angle relative to the workpiece, enhancing chip removal and reducing deflection risks. Additionally, a hollow bed has a hollow section that allows for tool passage, improving access to hard-to-reach areas and increasing operational efficiency. Each type of bed is designed to meet specific needs, ensuring optimal performance in various machining processes.

 

Headstock
The headstock, situated on the left side of the lathe, houses the spindle and controls its speed. There are several types of headstocks designed for various applications. A belt drive headstock uses belts for power transmission, offering simplicity and reliability. A gear drive headstock provides more speed options with gears, making it suitable for complex operations. An electronic variable speed headstock is controlled by an electronic motor, allowing for precise speed adjustments. Additionally, a CNC headstock is software-controlled, ensuring high precision and automation in CNC lathes. Each type of headstock is designed to meet specific needs, enhancing the performance and efficiency of the lathe in different machining processes.

 

Tailstock
The tailstock supports the opposite end of the workpiece, allowing for centered line or drilling operations. There are several types of tailstocks designed for various applications. A dead center tailstock features a fixed center, suitable for basic turning operations. A live center tailstock has a rotating center, reducing friction during high-speed turning. A hydraulic tailstock uses hydraulic pressure for center adjustment, making it ideal for heavy cuts. Additionally, a pneumatic tailstock employs air pressure, offering quick setup times and improved productivity. Each type of tailstock is designed to meet specific needs, enhancing the performance and efficiency of the lathe in different machining processes.

 

Tool Carrier
The tool carrier holds and moves the cutting tool along the bed, ensuring precise machining operations. There are several types of tool carriers designed for various applications. The saddle, mounted on the bed, controls the cutting length, providing stability and accuracy. The cross slide moves perpendicular to the workpiece, allowing for depth of cut adjustments. A tool turret holds multiple tools, rotating to position each for automated processes, enhancing efficiency. Additionally, a composite tool post allows for tool angles, facilitating the machining of tapered surfaces. Each type of tool carrier is designed to meet specific needs, optimizing the performance and productivity of the lathe in diverse machining tasks.

 

Lathe Saddle
The lathe saddle, an integral part of the carriage, supports the cross slide and plays a crucial role in machining operations. There are two main types of saddles designed for specific applications. The flat saddle is ideal for basic turning operations on manual lathes, providing stability and simplicity. On the other hand, the angled saddle offers better tool access and increased rigidity, making it suitable for precision work often required in CNC lathes. Each type of saddle enhances the performance and efficiency of the lathe, catering to different machining needs and ensuring optimal results in various applications.

 

Cross Slide
The cross slide is a crucial component of the lathe, allowing for vertical movement of the tool to control depth and angle. There are two main types of cross slides designed for specific applications. The standard cross slide provides vertical movement, enabling precise depth control during machining operations. On the other hand, the compound slide allows for tool angling, making it ideal for creating tapered surfaces. Each type of cross slide enhances the versatility and precision of the lathe, catering to different machining needs and ensuring optimal results in various applications.

 

Tool Holder
The tool holder plays a crucial role in the lathe by securely holding cutting tools and allowing for adjustments to accommodate different cuts. There are several types of tool holders designed for various applications. The four-way tool holder is basic, offering four positions suitable for manual lathes. The quick change tool holder facilitates fast tool swaps, enhancing productivity. The capstan tool holder holds multiple tools, making it ideal for automatic lathes. Additionally, the turret tool holder has a large capacity, supporting fully automated processes on CNC lathes. Each type of tool holder is designed to meet specific needs, optimizing the performance and efficiency of the lathe in diverse machining tasks.

 

Chuck
The chuck secures the workpiece for rotation, ensuring stability during machining operations. There are several types of chucks designed for various applications. The three-jaw chuck is a common self-centering chuck, offering versatility and ease of use. The four-jaw chuck features independent jaws, making it suitable for irregular shapes or off-center work. The spring collet provides precision gripping, ideal for small diameters. Additionally, the faceplate is used for large or asymmetrical parts, mounted with T-slot clamps or other methods. Each type of chuck enhances the performance and efficiency of the lathe, catering to different machining needs and ensuring optimal results in various applications.

 

Lead Screw
The lead-screw drives the carriage automatically along the bed, ensuring smooth and precise movement during machining operations. There are several types of lead-screws designed for specific applications. The single lead screw is basic, suitable for manual lathes. The multi-lead screw features multiple threads, allowing for faster traverses and making it ideal for high-speed threading. The Acme screw has trapezoidal threads, providing strength and durability in heavy-duty lathes. Additionally, the ball screw offers precision movement with recirculating ball bearings, making it ideal for CNC lathes. Each type of lead-screw enhances the performance and efficiency of the lathe, catering to different machining needs and ensuring optimal results in various applications.

 

Types of Metalworking Machines
 

 

1

CNC Horizontal Machining Centers
CNC horizontal machining centers remove excess metal from workpieces fixed on a horizontal plane. Cutting tools move along three or more axes to create metal parts. They offer high precision and efficiency for complex part manufacturing. Their ability to handle multiple axes simultaneously enhances productivity and flexibility in production processes.

2

CNC Vertical Machining Centers
CNC vertical machining centers are similar to horizontal ones but position workpieces vertically. This setup might be better for certain part designs, offering advantages in tool accessibility and chip removal. The orientation can improve accuracy and surface finish quality for specific types of metal parts, making it a preferred choice for intricate component fabrication.

3

CNC Routers
CNC routers cut softer materials like foam, plastic, wood, or soft metals at high speeds. Unlike machining centers that handle hard metals, routers excel in detail work and are essential for industries requiring precise, intricate designs. Their versatility in handling various materials makes them invaluable in fields ranging from sign-making to furniture production.

4

CNC Lathes
CNC lathes rotate workpieces along the Z-axis to remove material, ideal for creating round or cylindrical shapes. Their precision is crucial for automotive components typically produced on engine lathes. The consistency and accuracy they provide make them indispensable in industries where tight tolerances and smooth finishes are necessary.

5

Boring Mills
Boring mills expand pre-existing holes created by drills, ensuring smooth, clean surfaces inside larger diameters. Using single-cutting edge tools, they refine holes started by other machines, enhancing component integrity and performance. This process is vital for applications needing precise internal dimensions, such as engine blocks or machinery housings.

6

Drill Presses
Drill presses bore holes in diverse materials with high accuracy, surpassing handheld drills in precision and productivity. They are integral to various manufacturing stages, improving overall finish and throughput. Whether standalone or integrated into larger systems, drill presses ensure repeatable hole sizes and locations, critical for assembly operations.

7

Grinding Machines
Grinding machines employ abrasive wheels to shape, smoothen, and finish metals, achieving refined surfaces post-cutting. They effectively remove rust or coatings, refining edges after sawing or turning. Both portable angle grinders and bench grinders serve this purpose, adapting to different scale and precision requirements in metalworking processes.

8

Manual Lathes
Manual lathes, akin to CNC lathes but operated manually, use tools at right angles to the workpiece for shaping. Though cost-effective and simpler, they rely on operator skill, increasing error potential. Despite this, they remain valuable for low-volume production or when specialized manual input is required for unique parts.

9

Milling Machines
Milling machines, similar to CNC machining centers but non-computerized, necessitate skilled operators to prevent errors causing delays, production failures, or material waste. They simulate CNC functions without automation, demanding expertise to achieve accurate results. While less efficient than their computerized counterparts, they are essential in shops where CNC technology isn't feasible.

10

Belt Sanders
Belt sanders remove minimal material from workpiece surfaces to achieve smooth, flat finishes. Suitable as grinding machine alternatives, especially when random patterns are desired, fine sandpaper usage yields satin or glossy effects. Their gentle material removal preserves underlying textures, making them ideal for finishing tasks requiring aesthetic appeal alongside durability.

 

FAQ

 

Q: What is metalworking machinery?

A: Metalworking machinery is industrial equipment used to perform operations such as cutting, forming, welding and surface treatment on metal materials. These machines are widely used in manufacturing industries such as automobile manufacturing, aerospace, construction and electronics to produce various metal parts and products through high-precision and high-efficiency operations.

Q: What are the common types of metalworking machinery?

A: Common metalworking machinery includes lathes, milling machines, drilling machines, grinders, punching machines, laser cutting machines and CNC (computer numerical control) machine tools. Each machine has its own unique functions and applications. For example, lathes are mainly used to rotate workpieces for cutting, while laser cutting machines are used to accurately cut metal sheets of complex shapes.

Q: What is a CNC machine tool?

A: CNC machine tools refer to automated machine tools controlled by computer programs that are capable of performing a series of complex metalworking operations. It controls tool paths and speeds through pre-programmed instructions to achieve high-precision and high-efficiency production. CNC technology is widely used in various metalworking fields, ranging from simple drilling to complex three-dimensional engraving.

Q: What are the main uses of metalworking machinery?

A: The main uses of metalworking machinery include manufacturing and repairing various metal parts and components. They play a key role in many industries such as automotive manufacturing, aerospace, construction, electronics, medical equipment, etc., helping to produce high-quality metal products. In addition, metal processing machinery is also used in professional fields such as mold manufacturing and tool processing.

Q: What are the maintenance points of metal processing machinery?

A: The maintenance points of metal processing machinery include regular cleaning and lubrication, checking tool wear and replacing it in time, keeping the machine level and stable, regularly calibrating measuring tools, and following the maintenance manual provided by the manufacturer. Good maintenance habits can extend the service life of machine tools, improve production efficiency and product quality.

Q: How to ensure the safety of metal processing machinery?

A: In order to ensure the safety of metal processing machinery, a number of measures should be taken, including wearing personal protective equipment correctly, ensuring that operators have received professional training, regularly checking and maintaining equipment, using safety devices and emergency stop buttons, following safe operating procedures, and maintaining a good working environment. These measures help reduce the risk of accidents and protect the safety of operators.

Q: How to improve the energy efficiency of metal processing machinery?

A: Improving the energy efficiency of metal processing machinery can be achieved by optimizing machine tool design, adopting high-efficiency motors and drive systems, improving processing technology and parameters, and implementing energy management systems. In addition, regular maintenance and upgrading of old equipment is also an important way to improve energy efficiency.

Q: How to solve the noise problem of metal processing machinery?

A: Solving the noise problem of metal processing machinery can start from three aspects: source control, propagation path blocking, and receiving end protection. Specific measures include selecting low-noise machine tools and accessories, installing soundproofing covers or soundproofing panels, using shock-absorbing pads and vibration isolators, and providing personal protective equipment such as earplugs or earmuffs for operators.

Q: How to improve the production efficiency of metal processing machinery?

A: Improving the production efficiency of metal processing machinery can be achieved by optimizing the processing process, reducing non-productive time, improving cutting parameters, adopting automated loading and unloading systems, and implementing lean production management. At the same time, regular maintenance and upgrading of machine tools are also important means to improve production efficiency.

Q: How to reduce the energy consumption of metal processing machinery?

A: Reducing the energy consumption of metal processing machinery can be achieved by adopting energy-saving motors and drives, optimizing processing parameters, reducing idling and standby time, using renewable energy, and implementing energy management systems. These measures not only help reduce operating costs, but also meet the requirements of sustainable development.

Q: How to extend the life of metal processing machinery?

A: To extend the life of metal processing machinery, attention should be paid to reasonable use and maintenance. Avoiding overload operation, regular professional maintenance and overhaul, timely replacement of worn parts, and keeping the machine tool clean and in a good working environment are all effective ways to extend the life of the machine tool.

Q: How is the compatibility of metal processing machinery?

A: The compatibility of metal processing machinery refers to its ability to cooperate with other equipment or systems. Good compatibility means that the machine tool can be easily integrated with other automation equipment, support multiple data formats and communication protocols, and can adapt to different working environments and requirements.

Q: What are the industry application cases of metal processing machinery?

A: Metal processing machinery has a wide range of application cases in various industries, such as body and engine parts manufacturing in the automotive industry, precision structural parts processing in the aerospace industry, steel structure production in the construction industry, radiator and housing production in the electronics industry, etc. These cases show the importance and practicality of metal processing machinery in different fields.

Q: What is the environmental impact of metal processing machinery?

A: Metal processing machinery may generate pollutants such as noise, dust, waste liquid and exhaust gas during operation, which have a certain impact on the environment. In order to reduce these impacts, effective pollution control measures need to be taken, such as installing sound insulation facilities, using dust collection systems, treating wastewater and exhaust gas, and implementing green manufacturing technologies.

Q: How to ensure the accuracy of metal processing machinery?

A: Ensuring the accuracy of metal processing machinery requires comprehensive consideration of multiple aspects such as the manufacturing quality of the machine tool itself, the selection and use of cutting tools, the optimization of process parameters, and the control of environmental conditions. Regular calibration and maintenance of machine tools, the use of high-quality cutting tools and fixtures, and strict control of factors such as temperature and vibration during processing are all key to ensuring accuracy.

As one of the leading metalworking machines manufacturers and suppliers in China, we warmly welcome you to buy high quality metalworking machines for sale here from our factory. Contact us for quotation.