Capitalizing on our company's extensive design expertise, innovative research and development, and sophisticated production facilities, Hansheng Automation's CNC Machining Center is committed to delivering a comprehensive range of precision CNC machining services to clients worldwide. We specialize in tailor-made solutions, advanced design refinements, expedited prototyping processes, and the large-scale manufacturing of a diverse array of CNC components, ensuring each project meets the highest standards of quality and precision.
Why Choose Us
Rich Experience
Our organization has accumulated a wealth of experience through years of manufacturing excellence. Adhering to a customer-first approach and fostering collaborative, mutually beneficial relationships, we have cultivated a robust and sophisticated business framework.
Competitive Price
Equipped with seasoned professionals in sourcing and cost accounting, we are dedicated to optimizing costs without sacrificing quality. Our strategic efforts are aimed at delivering competitive pricing that offers exceptional value to our customers.
Sustainable Development
We have established a strong presence and enhanced brand value within our industry. This solid foundation supports our commitment to fostering enduring, stable, and dynamic corporate growth that is both responsible and vigorous.
Advanced Equipment
Our machinery, tools, and equipment are at the forefront of technological advancement, ensuring that we perform highly specialized tasks with unmatched precision, efficiency, and reliability.
One Stop Solution
From the initial point of contact to the moment you receive your products, we are fully committed to providing seamless support throughout the entire journey. Our holistic approach ensures you have a dedicated partner at every stage of the process.
Quality Products
We are uncompromising in our commitment to quality, utilizing only the finest materials and employing cutting-edge manufacturing techniques. This guarantees that our products are not only dependable and durable but also consistently meet the highest industry standards for performance and reliability.
We offer top-tier CNC turning and milling services characterized by meticulous precision and remarkable efficiency, tailored to address a spectrum of machining requirements. Our finely crafted CNC turned components hold broad applications across the automotive, electronics, medical, and numerous other industries.
Leveraging cutting-edge machining technology, including advanced CMC milling centers and versatile 3 to 5-axis milling machinery, we deliver precision CNC milling services of unparalleled excellence. Our craftsmen's expertise ensures unparalleled accuracy and quality.
Our suite of precision CNC machining services is designed to manufacture high-grade parts across various sectors. Backed by avant-garde technology and a team of adept technicians, we guarantee the delivery of client-centric, precision outcomes that are nothing short of exceptional.
Custom CNC machining, powered by computer numerical control, is a sophisticated manufacturing process employing automated, swift cutting tools to shape metal or plastic blocks into intricate designs and components.
In the realm of CNC machining materials, titanium stands out for its exceptional properties, including its capacity to endure high temperatures and resist chemical corrosion. Its lightweight attribute, coupled with other beneficial qualities, renders it an optimal choice for manufacturers.
Employing an array of precision machining technologies, we craft aerospace components that adhere to stringent industry standards and fulfill customer specifications. Our services encompass a range of surface treatments, assembly processes, and comprehensive testing to ensure uncompromised product quality.
CNC Machining, an acronym for Computer Numerical Control Machining, is recognized for its unmatched precision and consistency, surpassing manual processes. These machines utilize pre-programmed computer software to expedite production and enhance surface finish quality.
As a distinguished manufacturer of turned parts, we are committed to delivering superior quality products and services. With state-of-the-art equipment, extensive experience, and a dedicated professional team, we cater to the diverse needs of our customers. Upholding a philosophy of "quality and service excellence," we strive to create added value for our clientele.
What Is CNC Turning
CNC Turning represents a quintessential subtractive manufacturing technique, wherein a cutting tool is utilized to eliminate material from the surface of a workpiece. As the workpiece undergoes continuous rotation, the tool chips away at the material incrementally, sculpting it into the intended shape, diameter, and dimensions of the final product.
Advantages of CNC Turning
Precision
CNC turning excels in the production of components with exceptional precision, delivering dimensional accuracy and surface finishes of the highest caliber. This process is adept at crafting complex parts that adhere to stringent tolerances, making it a superior option for sophisticated and detailed designs.
Versatility
The CNC turning process is distinguished by its capacity to work with a wide array of materials, positioning it as a versatile solution across a multitude of industries and applications, catering to diverse manufacturing needs.
Scalability
CNC turning offers scalable efficiency for both small-batch and mass production. The process is characterized by its swiftness, reproducibility, and precision, attributes that render it well-suited for large-scale, high-volume manufacturing environments.
Design Restrictions
While CNC turning is perfectly suited for the creation of rotationally symmetrical parts, it may encounter limitations with non-cylindrical geometries. In such cases, alternative methods like CNC milling may be more appropriate, providing the necessary flexibility for a broader range of design specifications.
Types Of CNC Turning Operations
CNC turning encompasses a range of processes, each tailored to specific manufacturing needs with unique cutting characteristics. Here's an overview of the distinct types of CNC turning operations:
Uniform Diameter Reduction
This process, also known as straight turning, employs a cutting tool to uniformly reduce the workpiece's diameter to a consistent size. It is an efficient method for material removal, often serving as the initial step in achieving the desired product specifications, with subsequent finishing for precise dimensional accuracy.
Surface Texturing
Knurling is a texturing process that engraves patterns of serrated, angled, or crossed lines onto the workpiece's surface. This not only enhances grip by increasing friction but also finds application in the production of fasteners like bolts and nuts. Specialized knurling tools are typically required for this operation.
Material Separation
Parting is a precision machining technique that utilizes a single-point cutting tool to separate a portion of the material or create a deep, narrow cut. It is the final step in the production of parts, often used to trim or separate the completed piece from the stock.
Conical Shape Creation
Taper turning is the process of creating a conical shape by gradually reducing the diameter along the length of the workpiece. The controlled angular movement between the material and the cutting tool facilitates this gradual reduction, resulting in a cylindrical part with a tapered profile.
Helix Formation
Threading in CNC turning involves the formation of helical grooves, or threads, on the external surface of the workpiece. The cutting tool moves along the material's sides, creating threads with specific dimensions and pitch, essential for fastening and mating components.
Narrow Channel Formation
Grooving is a turning operation that creates a narrow channel or groove in the workpiece. This is achieved by the precise action of a pointed tool head against the material, resulting in a groove with a width equivalent to the cutting tool's profile. For wider grooves, multiple cutting tools can be employed to achieve the desired dimensions.
How Does The CNC Turning Work
The turning process is facilitated by a lathe machine that maneuvers a cutting tool in a linear trajectory along the surface of a rotating workpiece. Material is systematically removed along the circumference, progressively achieving the specified diameter. This method is instrumental in crafting cylindrical components that feature a combination of external and internal details, including slots, tapers, and threads.
In the turning process, single-point cutting tools are employed to eradicate material from a workpiece in rotation. The selection and design of these tools are tailored to meet the demands of various applications. A diverse array of tools is at our disposal, each serving a specific purpose such as roughing, finishing, facing, threading, parting, forming, undercutting, and grooving, thereby ensuring a wide range of manufacturing capabilities.

Materials Used In CNC Turning
CNC turning is a versatile process that accommodates a wide range of materials, each bringing distinct characteristics suitable for a variety of uses. The selection of material can greatly influence the machining process and the final product's performance.
Aluminum in CNC Turning:
Aluminum stands out as a favored material for CNC turning due to its combination of lightweight properties, robust strength, and superior machinability. These attributes make it an ideal choice for a multitude of applications where material workability and part performance are critical.
Stainless Steel
Stainless steel is celebrated for its exceptional durability and resistance to corrosion, making it a top selection for applications that demand robustness and a long service life.
Brass
Brass offers a harmonious blend of strength, ease of machining, and corrosion resistance, positioning it as an excellent material for manufacturing components such as gears and valves. Additionally, its aesthetic appeal has made it a favorite in artistic creations and the jewelry industry.
ABS Plastic
ABS plastic is recognized for its resilience and impact resistance, coupled with its machining-friendly nature. These qualities render it a superb option for creating parts and prototypes that require a combination of durability and precision.
Nylon
Nylon stands out for its remarkable strength, resistance to wear, and favorable machining traits. It is frequently utilized in industrial settings for components that need to withstand friction and wear, such as gears and bushings.
Finishes for CNC Turned Parts
We offer a variety of different finish options to suit your specific needs and desired aesthetics:
Raw Metal Finishing Techniques:
A part that is left in its "as-is" state post-machining will exhibit the natural outcome of the CNC process, characterized by visible tool marks and surface imperfections. This raw finish is cost-neutral, offering an economical choice for functional components not intended for display. Additionally, if the exterior of the part remains untouched by the cutting tool, it may be referred to as "stock finish," potentially featuring markings or identifiers from the material supplier.
For a more refined appearance on CNC-turned parts, vibratory polishing is an effective method. This technique involves tumbling the part within an abrasive medium to achieve a smooth surface that effectively conceals tool marks.
An alternative for bare metal finishing is media injection, which utilizes a stream of fine glass beads propelled by compressed air. This process imparts a uniform, non-directional finish that enhances the part's visual appeal.
Powder Coating as a Finishing Option:
Powder coating emerges as a prevalent method for applying a durable and premium-quality paint finish to metal parts. The process involves electrostatically spraying a dry powder onto the metal surface, which is then cured to produce a finish available in an array of colors, offering both protection and an attractive appearance to the metal components.
We've crafted an exhaustive guide to illustrate the optimal strategies for designing parts tailored for CNC turning. Key pointers for effective design include:
Ensuring Tool Reach: Confirm that the design allows for unobstructed tool access to every aspect. Intricate profiles may necessitate the use of specialized tools or advanced multi-axis CNC turning centers. Consider spatial allowances for thread-cutting tools to facilitate seamless machining.
Optimizing Part Positioning: The positioning of the part during the turning operation is pivotal, as it can affect the final product's quality, the duration of machining, and the resultant surface finish. Strategic part orientation can streamline the production process and enhance output quality.
This guide serves as a valuable resource, offering insights into crafting designs that maximize the potential of CNC turning while minimizing production challenges.
Tolerances
The level of precision required for the final product is a critical factor that can shape the machining process and its associated costs. Achieving tighter tolerances typically demands the use of sophisticated machinery and reduced cutting speeds, which may escalate the expenses involved in production.
Feature Size and Type
The dimensions and nature of the features incorporated in a design play a significant role in determining the machinability and structural integrity of the final part. Miniature features might necessitate the utilization of specialized tooling, while slender sections could present challenges in machining, potentially compromising the part's strength.
Surface Finish
The aspirational surface finish is another parameter that can significantly affect the machining procedure. While a rough finish can be achieved more rapidly and at a lower cost, attaining a high-quality surface finish might involve supplementary processes, thereby incurring additional expenses. Explore the various popular options for surface finishing to determine the best approach for your project requirements.
What Is The Difference Between CNC Milling and CNC Turning
Grasp the subtle distinctions between CNC milling and CNC turning, as these operations have distinct fundamental techniques, making them more suitable for different tasks.
Several critical elements influence the decision to use either CNC milling or turning:
Part Shape and Size:
The unique shapes and dimensions of a part are key in deciding the most appropriate machining technique.
Material Composition:
The material's composition significantly influences which machining process to employ.
Volume of Parts:
The number of parts needed affects the efficiency and cost-effectiveness of the chosen process.
Desired Finish:
The desired surface finish, whether it be a knurled texture or another specific quality, is a guiding factor in the selection process.
Budget Constraints:Budgetary constraints play a crucial role in the decision-making process between the two CNC methods.
When crafting a small aluminum component with a knurled finish, the selection between CNC milling and turning requires a thoughtful evaluation of these elements.
The suitability of a CNC machining process is primarily assessed based on the part's geometry, closely followed by the scale of production volume. A well-informed choice based on these criteria ensures the best outcome for your manufacturing objectives.
Investing in a CNC turning center opens the door to a myriad of new opportunities for a machine shop. With this advanced equipment, you can swiftly undertake rapid prototyping projects, significantly reducing the lead times compared to traditional methods. You can also compete for production runs of round machined parts and perform complex operations such as taper turning. A CNC turning machine ensures that every conceivable task, from threading and grooving to knurling, is executed with precision and efficiency.
While programming and setting up a CNC lathe demands the expertise of a skilled worker, the actual operation of the machine is designed to be user-friendly. This allows for a streamlined workflow where less experienced staff can manage the machine under the guidance of seasoned professionals.
Companies can efficiently allocate entry-level workers to part-changing tasks, thereby freeing up more experienced (and higher-paid) staff to focus on tasks that match their skill set and expertise.
Beyond the standard X, Y, and Z axes found on traditional three-axis CNC turning centers, some advanced models offer up to 9-axis capabilities. This technological leap, in the face of a manufacturing industry worker shortage, allows a single skilled programmer to direct a CNC lathe to perform multiple operations sequentially without part removal. Furthermore, machine shops can integrate robotics to assist with machine tending, further optimizing the operation and enhancing productivity.

Applications Of CNC Turning
CNC turning and machining processes are highly beneficial to different manufacturing sectors. Below we will take a brief look at the applications of turning operations.
Automotive Industry
In the automotive industry, CNC turning plays an integral role in fabricating components that enhance vehicle performance. This versatile process is adept at producing both metallic parts, such as engine blocks, and plastic parts, including dashboard assemblies, ensuring the precision and reliability of these critical components.
Electrical Industry
CNC turning is particularly well-suited for crafting components in the electrical industry, including the manufacturing of circuit boards. The high degree of precision offered by this machining process ensures that the resulting electronic components are highly efficient and meet stringent requirements and specifications.
Aerospace Industry
The aerospace industry relies on the precision and accuracy of CNC turning and machining for the production of intricate parts. This technology is ideal for creating steel components for spacecraft and aircraft, including fasteners and various internal parts, where the exacting standards of the industry are paramount.
Factors Affecting the CNC Turning Process
The feed rate, which governs the traversal velocity of the cutting tool over the workpiece, is a critical parameter to adjust. By fine-tuning the feed rate, you can establish the ideal cutting speed. Striking the right balance in material removal rates is essential to maintain surface quality and prolong tool longevity without compromising the machining process.
Control over the cutting speed is paramount; it dictates the rotational velocity of the cutting tool in relation to the workpiece materials. Proper speed selection is crucial for matching the tool to the material, ensuring a seamless and efficient machining operation, and achieving the desired finish.
The depth of cut, measured by the thickness of material removed with each pass of the tool, is another adjustable parameter. Modifying this setting is key to controlling the rate of material removal and preventing excessive heat generation, which can affect both the workpiece's integrity and the tool's performance.
Drawing on our company's extensive design expertise, innovative research and development, and advanced production capabilities, Hansheng Automation's CNC Machining Center is fully committed to offering a wide array of precision CNC machining services to customers worldwide. We specialize in tailor-made solutions, design optimization, swift prototyping, and large-scale manufacturing of a diverse range of CNC components.

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