Source Automatic Floor-Type CNC Lathe Machine for Steel, Aluminum, Brass

Explore 30 verified listings for the automatic floor-type cnc lathe machine designed for high-precision turning of steel, stainless steel, aluminum, brass, and titanium. Buyers can compare specifications like swing over bed, controlling mode, and power source to find suitable industrial solutions.

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Comprehensive Sourcing Guide

Strategic Sourcing Guide for Automatic Floor-Type CNC Lathe Machines

Understanding the Core Architecture and Configuration

When sourcing an automatic floor-type CNC lathe machine, the primary objective is to identify equipment that aligns with high-volume production requirements while maintaining the structural rigidity necessary for precision machining. The term "floor-type" indicates a machine designed to sit directly on the factory floor, offering a stable foundation that absorbs vibrations better than benchtop or gantry alternatives. This configuration is essential for heavy-duty operations involving large workpieces. The supplied data confirms that the available inventory includes models such as the CK-46, CK6180/2000, CKL61160/3000, and SK40P/750, each representing different capacity tiers within the floor-type category.

A critical architectural distinction in these machines is the bed type. The market data highlights the prevalence of the "Slant Bed CNC Lathe" design. Slant beds are engineered to facilitate gravity-assisted chip evacuation, preventing chips from accumulating on the bed ways and reducing the risk of scratching the guideways. This design is often paired with specific guide rail configurations. Buyers must verify whether the machine utilizes a "Horizontal Guide Rail" or an "Inclined Guide Rail." Inclined rails are frequently preferred in modern high-precision applications as they offer superior rigidity and better resistance to cutting forces compared to horizontal setups. The observed models also feature a "Single-tool Holder CNC Lathe" configuration, which simplifies the tooling setup but requires careful programming to manage multiple operations efficiently.

The controlling mode is another fundamental specification. While the industry standard for modern automatic lathes is fully automated Computer Numerical Control (CNC), the provided facts indicate a mix of "CNC" and "Artificial" controlling modes in the current listings. This discrepancy requires immediate clarification during the sourcing process. A machine labeled with "Artificial" control may refer to a semi-automatic operation where the operator initiates cycles, or it may indicate a legacy system that does not meet modern automation standards. For a true "automatic floor-type" requirement, the buyer must insist on a fully integrated CNC system that manages the entire machining cycle without manual intervention for every step. The "Automatic Grade" attribute further complicates this, with some listings marked as "Semiautomatic" and others as "Automatic." This distinction dictates the level of integration with material handling systems and the overall throughput capability of the machine.

Technical Specifications and Operational Capabilities

The technical specifications of a CNC lathe define its physical limits and machining potential. The most critical dimension to evaluate is the "Max Swing Over Bed," which determines the maximum diameter of the workpiece that can be rotated without hitting the bed. The observed data presents a wide range of capabilities, from a "Sawing over bed" of 800mm to a "Max Swing Over Bed" of 1600mm, and a specific model with a "Swing Over Bed" of 400mm. This variance suggests that the market offers machines for both small, high-precision components and large, heavy industrial parts. A buyer must match the swing capacity to their largest anticipated workpiece, ensuring a safety margin to prevent collisions.

The "Max turning diameter" is another vital metric, often listed as 400mm in specific models like the SK40P/750. This figure represents the actual material diameter that can be machined, which is typically slightly less than the swing over bed due to tool clearance. The "Processing Accessory" field identifies the use of a "Chuck CNC Lathe" setup, specifically utilizing a "3 Jaw Hydraulic Chuck" for workpiece clamping. Hydraulic chucks provide consistent clamping force, which is essential for maintaining concentricity during high-speed rotation. The power source for these machines varies, with listings indicating "Electric," "Hydraulic Pressure," and "Mechanical Drive" options. For an automatic floor-type machine, an electric power source is generally preferred for the main spindle drive, while hydraulic systems are often used for chuck actuation and tailstock movement.

Material compatibility is a key consideration for operational versatility. The supplied facts confirm that these machines are designed to process "Steel / Stainless Steel / Aluminum / Brass / Titan." This broad material range indicates a robust spindle and tooling system capable of handling the varying hardness and cutting characteristics of these metals. However, the "Function" attribute notes a specific capability to "Process Brass Insert," suggesting that some models may have specialized tooling or configurations optimized for brass components. The "Chip Conveyor" is listed as an "Optional Automatic Chip Conveyor," meaning that while the machine can handle chip removal, the buyer must explicitly specify the inclusion of this accessory if high-volume, unattended operation is required. Without it, the machine may require frequent manual intervention to clear chips, negating the benefits of automation.

Compliance, Certification, and Safety Standards

In the global B2B machinery market, compliance with international standards is non-negotiable. The data indicates that the available products carry "ISO CE" and "CE" certifications. The CE marking is a mandatory conformity mark for products sold within the European Economic Area, signifying that the machine meets EU safety, health, and environmental protection requirements. Additionally, some listings mention "CE, GS" certification. The GS mark (Geprüfte Sicherheit) is a German safety certification that is often recognized globally as a higher standard of safety assurance, particularly for electrical equipment. Buyers targeting markets in Europe or those requiring high safety standards should prioritize machines with both CE and GS markings.

Beyond the visible certifications, the "prod_standard" field lists specific model identifiers like "2500 Kgs," "CK6180/2000," and "CKL61160/3000." These appear to be internal model standards or weight classifications rather than international safety standards like ISO 12100 (Safety of machinery). It is crucial for the buyer to verify that the machine's design adheres to the relevant ISO safety standards for machine tools, even if the listing only highlights the model number as the "standard." The "Condition" of the machines is listed as "New," which implies that the equipment should meet current manufacturing standards and safety regulations. However, the presence of "Artificial" controlling modes in some listings raises questions about the age of the control systems and their compliance with modern safety protocols regarding emergency stops and interlocks.

The "After-Sales Service Provided" attribute confirms that "Engineers Available to Service Machinery Overseas" is a feature of the supply chain. This is a critical component of compliance and operational continuity. In the event of a safety incident or a critical failure, having access to certified engineers who can travel to the site ensures that the machine can be brought back to a safe operating condition quickly. Buyers should verify the specific terms of this service, including response times and the availability of spare parts, to ensure that the compliance and safety posture of the machine is maintained throughout its lifecycle.

Cost Drivers and Procurement Economics

The pricing landscape for automatic floor-type CNC lathes is influenced by a complex interplay of specifications, automation levels, and included accessories. The observed price range spans from $1,000 to $100,000 USD. This wide disparity is not merely a reflection of brand value but is directly correlated with the technical specifications discussed earlier. A machine with a 400mm swing, electric power source, and basic CNC control will likely sit at the lower end of this spectrum. Conversely, a 1600mm swing machine with hydraulic drives, inclined guide rails, and an automatic chip conveyor will command a price closer to the upper limit.

The "MOQ" (Minimum Order Quantity) is consistently listed as "1" across the observed data. This indicates a flexible procurement environment where buyers can purchase a single unit without needing to commit to a bulk order. This is advantageous for small to medium-sized enterprises that need to replace a single machine or pilot a new production line. However, the "prod_packing" methods vary, ranging from "Wooden Case Packaging" and "Iron Pallet" to "Veneer Box." The choice of packaging can impact the final landed cost, as heavier or more robust packaging may incur higher shipping fees. For international buyers, the "prod_origin" being "China" and specifically "Zhejiang, China" for some models is a key factor in logistics planning. While China is a major manufacturing hub, buyers must account for shipping costs, import duties, and customs clearance fees, which are not included in the listed product price.

The "Color" is noted as "Factory Default," which suggests that aesthetic customization is not a primary cost driver. However, the "Customization" attribute is marked as "Available." This implies that buyers can request modifications to the machine, such as specific tooling configurations, control panel layouts, or safety guards. Customization will inevitably increase the cost and potentially the lead time. Buyers should carefully evaluate whether the standard configuration meets their needs before incurring additional costs for bespoke features. The "Size" specification of "1750*1850" for certain models provides a baseline for floor space planning, which is a critical indirect cost factor in factory layout design.

Typical Applications and Material Processing

The versatility of the automatic floor-type CNC lathe is evident in its ability to handle a diverse range of materials. The "Applicable Material" list includes Steel, Stainless Steel, Aluminum, Brass, and Titanium. This makes the machine suitable for a wide array of industries, from automotive and aerospace to general manufacturing and construction. Steel and stainless steel applications often require high rigidity and precise control, which the "High Precision" attribute of these machines supports. The "Semiautomatic" and "Automatic" grades suggest that the machine can be configured for both low-volume, high-mix production and high-volume, repetitive manufacturing.

The "Function" of processing "Brass Insert" highlights a specific niche application where these lathes excel. Brass components often require high-speed machining and precise finishing, which the "High Precision" capability of the machine facilitates. The "3 Jaw Hydraulic Chuck" is particularly well-suited for round brass parts, ensuring concentricity and reducing setup time. For aluminum and titanium, the machine's ability to maintain stability under varying cutting forces is crucial. Titanium, being a difficult-to-machine material, requires a machine with a robust power source and rigid guide rails to prevent chatter and ensure tool life.

The "Processing Types" being listed as "Automatic" indicates that these machines are designed for unattended or semi-unattended operation. This is ideal for applications where consistency and repeatability are paramount, such as mass-producing automotive components or medical device parts. The optional "Automatic Chip Conveyor" further enhances the machine's suitability for long-duration runs, allowing it to operate for extended periods without operator intervention. However, the presence of "Artificial" controlling modes in some listings suggests that buyers must be vigilant in selecting the right model for their specific application. A fully automatic application requires a fully automated control system, whereas a semi-automatic application might suffice with a hybrid setup.

Supplier Evaluation and Quality Assurance

Evaluating a supplier for automatic floor-type CNC lathes requires a deep dive into their technical capabilities and support infrastructure. The "After-Sales Service Provided" attribute, which mentions "Engineers Available to Service Machinery Overseas," is a strong indicator of a supplier's commitment to long-term support. Buyers should verify the geographic coverage of these engineers and their response time guarantees. A supplier that can provide on-site support is essential for minimizing downtime in critical production environments.

Quality control is another critical factor. The "Condition" of the machines is listed as "New," but this does not guarantee the quality of the components used. Buyers should request detailed inspection reports, including test results for spindle runout, bed flatness, and positioning accuracy. The "High Precision" attribute is a claim that must be substantiated with data. Buyers should ask for the specific tolerance levels the machine can achieve and how these tolerances are maintained over time. The "Certification" of ISO CE and GS provides a baseline for safety and quality, but it does not replace the need for a thorough pre-shipment inspection.

The "prod_origin" being China and specifically Zhejiang is a common source for these machines, but it does not imply uniform quality across all suppliers. Buyers should investigate the specific factory's reputation, production capacity, and history of exporting to their region. The "Customization" availability suggests that the supplier has the engineering capability to adapt the machine to specific needs, which is a positive sign of technical competence. However, buyers should ensure that the customization process is well-documented and that the supplier provides clear timelines and cost estimates for any modifications.

Long-Term Procurement and Lifecycle Management

Procuring an automatic floor-type CNC lathe is a long-term investment that extends well beyond the initial purchase. The "prod_packing" and "prod_standard" details provide insights into the machine's durability and transportability, but the long-term value depends on the machine's ability to maintain performance over years of operation. The "Automatic Grade" and "Controlling Mode" are critical factors in this regard. A machine with a fully automated control system and high-precision components will have a longer useful life and higher resale value than a semi-automatic or older model.

Maintenance and spare parts availability are paramount for long-term success. The "After-Sales Service" offering engineers overseas is a significant advantage, but buyers should also verify the availability of spare parts in their region. The "Chip Conveyor" being an optional accessory means that buyers must plan for its maintenance and replacement costs separately. The "Power Source" type, whether electric, hydraulic, or mechanical, will also influence the maintenance schedule and cost. Hydraulic systems, for instance, require regular fluid changes and filter replacements, while electric systems may have different maintenance needs.

The "Size" and "Bed Type" of the machine will impact the factory layout and future expansion plans. A slant bed machine with a large swing capacity may require significant floor space and specialized foundations. Buyers should consider the potential for future upgrades, such as adding a second spindle or integrating a robotic loading system. The "Customization" attribute suggests that the machine can be adapted for future needs, but buyers should ensure that the control system is open enough to support such expansions. Ultimately, the goal is to select a machine that not only meets current production requirements but also has the flexibility and durability to support future growth and technological advancements.

FAQs

What certifications do these automatic floor-type CNC lathe machines have?

The machines carry CE and ISO CE certifications, with some models also featuring GS safety marks. These certifications indicate compliance with European safety and health standards, ensuring the equipment meets international regulatory requirements for industrial machinery.

Which materials can an automatic floor-type CNC lathe machine process?

These machines are designed to process steel, stainless steel, aluminum, brass, and titanium. The high-precision spindle and tooling system allow for versatile machining across these diverse metals, supporting applications in automotive, aerospace, and general manufacturing sectors.

How is the workpiece clamped on a floor-type CNC lathe machine?

Workpieces are secured using a 3-jaw hydraulic chuck for consistent clamping force. This method ensures concentricity during high-speed rotation, which is critical for maintaining precision when machining large or heavy components on the slant bed design.

Can I customize the automatic floor-type CNC lathe machine specifications?

Customization is available for specific buyer requirements, allowing for modifications to tooling or safety features. Buyers should verify the impact on lead time and cost, as bespoke configurations may extend the delivery schedule compared to standard factory default models.

What is the maximum swing over bed for these CNC lathe machines?

Maximum swing capacities vary by model, ranging from 400mm to 1600mm over the bed. Buyers must select a model with sufficient clearance for their largest anticipated workpiece to prevent collisions and ensure safe operation during heavy-duty machining cycles.

Where are these automatic floor-type CNC lathe machines manufactured?

The products originate from China, with specific models produced in Zhejiang. This location influences logistics planning, as international buyers must account for shipping costs, import duties, and customs clearance fees when calculating the total landed cost of the equipment.