{"id":6913,"date":"2026-09-21T03:46:09","date_gmt":"2026-09-21T03:46:09","guid":{"rendered":"https:\/\/www.runnewtech.com\/?p=6913"},"modified":"2026-09-21T08:33:04","modified_gmt":"2026-09-21T08:33:04","slug":"cnc-lathe-machine-for-sale","status":"publish","type":"post","link":"https:\/\/www.runnewtech.com\/vi\/cnc-lathe-machine-for-sale\/","title":{"rendered":"How to Buy a CNC Lathe Machine From China: Specs Price and Shipping"},"content":{"rendered":"

CNC Lathe Machine Buyer Guide<\/h2>\n

The right CNC lathe machine<\/a> for sale depends on matching your workpiece envelope to the machine’s physical capacity and choosing a control system your operators already know. A 500 mm swing flat-bed CNC lathe with 1000 mm between centers, A2-6 spindle nose, 2500 rpm maximum spindle speed, and 7.5 kW spindle motor handles 80% of general shaft and flange work; move to 750 mm swing and 1500 mm length with an A2-8 nose and 11 kW spindle for oil-field couplings and large agricultural hubs. Rapid traverse of 12\u201320 m\/min on X and Z axes and positioning accuracy of 0.015 mm with repeatability of 0.008 mm are standard expectations at this level.<\/p>\n

What Controls the Price Range<\/h3>\n

FOB Qingdao for a standard flat-bed CNC lathe with GSK 980TDi or KND K2000TFi control runs $18,000\u2013$28,000. Specifying FANUC 0i-TF Plus or Siemens 828D adds $4,000\u2013$7,000. Slant-bed designs with linear roller guideways (HIWIN or PMI), hydraulic tailstock, and 8-station hydraulic turret push the range to $35,000\u2013$55,000. Y-axis live tooling and C-axis interpolation for milling operations add another $8,000\u2013$15,000. Lead time stretches from 25 days for standard configurations to 55 days for complex slant-bed units with custom automation interfaces.<\/p>\n

Matching Workpiece to Machine Size<\/h3>\n

Maximum turning diameter over the bed versus over the carriage differs by 150\u2013200 mm on most machines. A 360 mm chuck on a 500 mm swing lathe leaves only 140 mm clearance for the tool post; verify your largest casting or forging fits with tool clearance. Bar work through the spindle requires matching bore diameter: 65 mm for A2-5, 80 mm for A2-6, and 105 mm for A2-8 noses.<\/p>\n

Qualifying the Supplier<\/h3>\n

Request cast iron grade documentation\u2014HT250 for beds under 3000 kg, HT300 or Meehanite for heavier slant-bed frames. Ask for actual machine weight, not shipping weight: a properly built 500 mm flat-bed CNC lathe weighs 3200\u20133800 kg bare. Verify the supplier stocks spindle bearings, turret index mechanisms, and control parameter backups for the specific system you order. Factory acceptance test reports should include actual positioning accuracy measured with laser interferometer, not just claimed catalog values.<\/p>\n

The remainder of this page covers electrical preparation, container loading limits, and the specific documentation needed for customs clearance in your region.<\/p>\n

Types and Configurations of CNC Lathe Machine<\/h2>\n

Flat Bed CNC Lathe<\/h3>\n\n\n\n\n\n
Type or Class<\/th>\nTypical Working Range<\/th>\nControl Options<\/th>\nBest Suited For<\/th>\nNotes<\/th>\n<\/tr>\n<\/thead>\n
Flat Bed CNC Lathe<\/td>\nMax turning diameter 400\u2013800 mm; max turning length 750\u20133000 mm; spindle bore 52\u2013105 mm<\/td>\nGSK 980TDi, KND K1000Ti, FANUC 0i-TF, Siemens 828D<\/td>\nGeneral turning, shaft work, repair shops, first-time CNC buyers<\/td>\nHardened box ways or linear guides; A2-6 or A2-8 spindle nose; 7.5\u201315 kW spindle; 2000\u20133500 rpm; positioning accuracy 0.015 mm; repeatability 0.008 mm; machine weight 2500\u20135500 kg<\/td>\n<\/tr>\n<\/tbody>\n<\/table>\n

The flat bed CNC lathe remains the default choice for shops transitioning from conventional engine lathes or buying their first CNC. The bed sits horizontal and open, giving easy access for setup and allowing chuck sizes from 200 mm to 400 mm on the same platform. Controls from GSK and KND dominate at the entry level (USD 18,000\u201335,000 FOB) because parts and parameter familiarity are widespread in Southeast Asia and Africa; FANUC or Siemens add USD 4,000\u20138,000 and make sense only if the shop already runs that ecosystem or services automotive tier-one suppliers. The trade-off is rigidity: flat beds with linear guides (HIWIN\/PMI) move faster at 15\u201320 m\/min rapid traverse but deflect more on interrupted cuts than box-way versions. These machines cannot handle heavy stock removal on large-diameter cast iron flanges or hold tight concentricity on long slender shafts without steady rests, which most builders offer as factory options. Typical buyers are job shops, agricultural repair stations, and technical training centres that need versatility over specialization.<\/p>\n

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Slant Bed CNC Lathe<\/h3>\n\n\n\n\n\n
Type or Class<\/th>\nTypical Working Range<\/th>\nControl Options<\/th>\nBest Suited For<\/th>\nNotes<\/th>\n<\/tr>\n<\/thead>\n
Slant Bed CNC Lathe<\/td>\nMax turning diameter 360\u2013650 mm; max turning length 500\u20132000 mm; X\/Z travel 180\u2013260 mm \/ 500\u20131200 mm<\/td>\nFANUC 0i-TF Plus, Siemens 828D, Mitsubishi M80, Syntec 22TA<\/td>\nBatch production, precision components, automotive fittings, hydraulic parts<\/td>\n30\u201345\u00b0 slant bed; A2-5, A2-6 or A2-8 spindle; 7.5\u201322 kW; 3500\u20136000 rpm; linear roller guides; positioning accuracy 0.010 mm; repeatability 0.005 mm; machine weight 3000\u20138000 kg<\/td>\n<\/tr>\n<\/tbody>\n<\/table>\n

Slant bed lathes angle the bed 30\u00b0 to 45\u00b0 so chips fall by gravity into a conveyor, reducing thermal distortion and manual cleaning in continuous runs. The turret sits closer to the spindle centreline than on flat beds, improving rigidity for the same footprint. This configuration dominates automotive subcontracting: a 400 mm swing slant bed with FANUC 0i-TF Plus, 12-station turret, and 11 kW spindle (4000 rpm) handles brake discs, hub blanks, and hydraulic fittings at cycle times 20\u201330% shorter than equivalent flat beds. Controls cluster around FANUC and Siemens because these integrate cleanly with robotic loading and factory MES systems; GSK and KND appear on lighter-duty models aimed at price-sensitive markets. The slant bed cannot economically machine very long shafts (over 1500 mm) because the angled bed wastes vertical space, and it offers poorer operator visibility for manual one-off setups compared to flat beds. Buyers are tier-two automotive suppliers, precision component job shops in Eastern Europe, and exporters to North America needing CE-compliant builds with full guarding and interlocks.<\/p>\n

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CNC Turning Centre with Live Tooling and Y-Axis<\/h3>\n\n\n\n\n\n
Type or Class<\/th>\nTypical Working Range<\/th>\nControl Options<\/th>\nBest Suited For<\/th>\nNotes<\/th>\n<\/tr>\n<\/thead>\n
CNC Turning Centre with Live Tooling and Y-Axis<\/td>\nMax turning diameter 250\u2013500 mm; max turning length 400\u20131000 mm; Y-axis travel \u00b125\u201350 mm; C-axis indexing 0.001\u00b0<\/td>\nFANUC 0i-TF Plus, Siemens 828D with ShopTurn, Mitsubishi M80<\/td>\nComplex parts needing milling, drilling, tapping off-centre; medical, aerospace, fluid power<\/td>\n12-station driven turret or VDI 40\/VDI 50 turret; 5.5\u201315 kW main spindle; 6000\u20138000 rpm; sub-spindle optional; positioning accuracy 0.008 mm; repeatability 0.004 mm; machine weight 4500\u201312000 kg<\/td>\n<\/tr>\n<\/tbody>\n<\/table>\n

A turning centre with live tooling and Y-axis eliminates second setups on parts that need cross-drilled holes, flats, or polygonal profiles. The Y-axis, typically \u00b125 mm to \u00b150 mm, lets an end mill walk across a flange face or drill a radial port at 90\u00b0 to the spindle. C-axis spindle orientation (0.001\u00b0 resolution) supports contour milling and engraving. FANUC and Siemens control almost this entire segment because synchronizing rotary axes with linear interpolation demands proven servo algorithms and extensive post-processor support from CAM vendors. A 300 mm swing machine with 12-station driven turret (VDI 40), 7.5 kW main spindle, and sub-spindle runs USD 65,000\u2013120,000 FOB depending on control and sub-spindle inclusion. These machines cannot compete on pure turning cycle cost against simpler two-axis lathes, and the live tooling turret adds maintenance burden: each driven station needs coolant rotary unions and timing belts with 4,000\u20136,000 hour replacement intervals. Buyers are aerospace detail shops, medical instrument contract manufacturers, and hydraulic valve producers in Germany, the US Gulf Coast, and Turkey who value reduced WIP and finished-part inspection pass rates over capital cost.<\/p>\n

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Vertical CNC Lathe (VTL)<\/h3>\n\n\n\n\n\n
Type or Class<\/th>\nTypical Working Range<\/th>\nControl Options<\/th>\nBest Suited For<\/th>\nNotes<\/th>\n<\/tr>\n<\/thead>\n
Vertical CNC Lathe<\/td>\nMax turning diameter 1000\u20132500 mm; max turning height 800\u20131600 mm; table load 2000\u201315000 kg<\/td>\nFANUC 31i-B, Siemens 840D sl, GSK 980MDi<\/td>\nLarge brake drums, flywheels, gear blanks, wind turbine rings, mining wear parts<\/td>\nSingle or double column; hydrostatic or roller guideway table; 22\u201375 kW table drive; 100\u2013300 rpm max; positioning accuracy 0.020 mm; repeatability 0.010 mm; machine weight 12000\u201380000 kg<\/td>\n<\/tr>\n<\/tbody>\n<\/table>\n

Vertical CNC lathes hold the workpiece on a horizontal table, using gravity to seat heavy irregular castings against fixtures and to pull chips downward. The configuration is non-negotiable for parts over 1000 mm diameter that cannot be chucked safely in a horizontal spindle. Single-column VTLs (1000\u20131600 mm swing, 22\u201337 kW) serve brake drum and flywheel producers; double-column designs (2000\u20132500 mm, 45\u201375 kW) machine wind turbine bearing rings and mining gears with 10-tonne table loads. Controls must handle low-speed high-torque servo loops: FANUC 31i-B and Siemens 840D sl dominate, with GSK 980MDi appearing on lower-cost single-column machines for the domestic Chinese and Southeast Asian markets. Rapid traverse is irrelevant at 5\u201310 m\/min; the specification that matters is table runout under load, typically 0.02 mm measured at 5000 kg. These machines cannot handle shaft work or long slender parts, and they demand foundations with 300\u2013500 mm reinforced concrete and anchor bolt patterns supplied by the builder. Buyers are heavy equipment rebuilders, wind energy component mills, and state-owned mining maintenance shops in South Africa, Chile, and Kazakhstan.<\/p>\n

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Swiss-Type CNC Automatic Lathe<\/h3>\n\n\n\n\n\n
Type or Class<\/th>\nTypical Working Range<\/th>\nControl Options<\/th>\nBest Suited For<\/th>\nNotes<\/th>\n<\/tr>\n<\/thead>\n
Swiss-Type CNC Automatic Lathe<\/td>\nMax bar diameter 12\u201338 mm; max part length 2.5\u00d7 bar diameter (typically 60\u2013150 mm); up to 7\u20138 axes<\/td>\nFANUC 32i-B, Mitsubishi M80, Syntec 21TA with bar feeder integration<\/td>\nHigh-volume precision turned parts: connectors, medical implants, watch components, automotive sensors<\/td>\nSliding headstock; guide bushing with 0.01 mm clearance; 3.7\u20137.5 kW main spindle; 8000\u201315000 rpm counter-spindle; positioning accuracy 0.003 mm; repeatability 0.002 mm; machine weight 2500\u20134500 kg<\/td>\n<\/tr>\n<\/tbody>\n<\/table>\n

Swiss-type lathes feed bar stock through a guide bushing clamped close to the cutting point, preventing deflection on parts with length-to-diameter ratios exceeding 6:1. The sliding headstock moves the bar past fixed tools, while a sub-spindle and back-working station complete the part in one cycle. This is the configuration for 10,000-piece medical implant lots or 0.8 mm pitch connector bodies with \u00b10.005 mm tolerance. Controls from FANUC and Mitsubishi prevail because they manage the complex axis synchronization (main spindle, Z1 slide, sub-spindle, live tools, bar feeder) without latency; Syntec competes on price for less demanding connector work. A 20 mm capacity Swiss machine with bar feeder runs USD 80,000\u2013180,000 FOB, with Japanese and European brands at 2\u20133\u00d7 that. The Swiss-type cannot use cut blanks or castings; it requires straight, round bar stock with diameter tolerance under 0.05 mm, and guide bushing wear at 0.03 mm clearance triggers chatter and scrap. Buyers are dedicated contract manufacturers in Shenzhen, Bangalore, and Tijuana serving medical OEMs and automotive sensor suppliers, plus watch component specialists in Switzerland and Thailand buying second machines for capacity expansion.<\/p>\n

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Multi-Spindle CNC Lathe<\/h3>\n\n\n\n\n\n
Type or Class<\/th>\nTypical Working Range<\/th>\nControl Options<\/th>\nBest Suited For<\/th>\nNotes<\/th>\n<\/tr>\n<\/thead>\n
Multi-Spindle CNC Lathe<\/td>\nBar diameter 10\u201365 mm; 4, 5, 6 or 8 spindles in drum or linear arrangement; part length 20\u2013200 mm<\/td>\nSiemens 840D sl, FANUC 31i-B with custom PLC, proprietary controls (Index, Sch\u00fctte)<\/td>\nMass production automotive: spark plug bodies, fuel injector components, fastener blanks, small bearing races<\/td>\n4.5\u201315 kW per spindle; 6000\u201310000 rpm; drum index time 0.4\u20130.8 s; positioning accuracy 0.010 mm; repeatability 0.005 mm; machine weight 8000\u201325000 kg<\/td>\n<\/tr>\n<\/tbody>\n<\/table>\n

Multi-spindle CNC lathes divide the cutting cycle across multiple stations, so each spindle carries a part through roughing, finishing, drilling, and part-off in one drum revolution. A six-spindle machine outputs 40\u201380 parts per minute where a single-spindle automatic manages 8\u201312. The economics depend entirely on annual volume: tooling setup takes 4\u20138 hours, and changeover between part families requires turret and cam reprogramming. Siemens 840D sl and FANUC 31i-B with heavy PLC customization run the CNC multi-spindles now replacing mechanical cam machines; proprietary controls from Index or Sch\u00fctte still dominate in European automotive. Chinese builders have entered this segment since 2018 with four- and six-spindle drums at 40\u201360% of European pricing, though toolholder interchangeability and spare part lead times remain longer. These machines cannot profitably run batches under 50,000 pieces, cannot handle large-diameter shaft work, and demand dedicated tooling presetters and skilled setters. Buyers are tier-one automotive fastener and fuel system suppliers in Mexico, Poland, and China, plus large contract manufacturers in Taiwan and South Korea serving Japanese automotive OEMs.<\/p>\n

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\"CNC
CNC Lathe Machine Undergoing Test Machining Before Shipment<\/figcaption><\/figure><\/figure>\n

Specifications and How to Read Them<\/h2>\n\n\n\n\n\n\n\n\n\n\n\n\n\n\n\n\n\n\n\n\n\n\n
Parameter<\/th>\nEntry Level<\/th>\nMid Range<\/th>\nHigh Specification<\/th>\n<\/tr>\n<\/thead>\n
Max Turning Diameter (mm)<\/td>\n360<\/td>\n500<\/td>\n800<\/td>\n<\/tr>\n
Max Turning Length (mm)<\/td>\n500<\/td>\n1000<\/td>\n3000<\/td>\n<\/tr>\n
Chuck Size (mm)<\/td>\n200 hydraulic<\/td>\n250 hydraulic<\/td>\n380 hydraulic<\/td>\n<\/tr>\n
Spindle Taper<\/td>\nA2-5<\/td>\nA2-6<\/td>\nA2-8<\/td>\n<\/tr>\n
Spindle Speed (rpm)<\/td>\n3500<\/td>\n3000<\/td>\n2000<\/td>\n<\/tr>\n
Spindle Power (kW)<\/td>\n7.5<\/td>\n11<\/td>\n22<\/td>\n<\/tr>\n
X-Axis Travel (mm)<\/td>\n180<\/td>\n250<\/td>\n420<\/td>\n<\/tr>\n
Z-Axis Travel (mm)<\/td>\n520<\/td>\n1050<\/td>\n3050<\/td>\n<\/tr>\n
Rapid Traverse X\/Z (m\/min)<\/td>\n15 \/ 20<\/td>\n20 \/ 24<\/td>\n16 \/ 20<\/td>\n<\/tr>\n
Guideway Type<\/td>\nHardened box way<\/td>\nLinear roller guide (HIWIN\/PMI)<\/td>\nHardened box way<\/td>\n<\/tr>\n
Positioning Accuracy (mm)<\/td>\n\u00b10.020<\/td>\n\u00b10.012<\/td>\n\u00b10.010<\/td>\n<\/tr>\n
Repeatability (mm)<\/td>\n\u00b10.008<\/td>\n\u00b10.006<\/td>\n\u00b10.005<\/td>\n<\/tr>\n
Tool Stations<\/td>\n8 station turret<\/td>\n12 station turret<\/td>\n12 station turret + Y-axis<\/td>\n<\/tr>\n
Control System<\/td>\nGSK 980TDi or KND K2000TF<\/td>\nFANUC 0i-TF or Siemens 828D<\/td>\nFANUC 0i-TF Plus or Siemens 840D sl<\/td>\n<\/tr>\n
Machine Net Weight (kg)<\/td>\n2200<\/td>\n4500<\/td>\n12500<\/td>\n<\/tr>\n
Floor Space L\u00d7W\u00d7H (mm)<\/td>\n2500 \u00d7 1500 \u00d7 1650<\/td>\n3500 \u00d7 1850 \u00d7 1950<\/td>\n6500 \u00d7 2400 \u00d7 2200<\/td>\n<\/tr>\n
Supply Voltage<\/td>\n380V 3-phase 50Hz<\/td>\n380V 3-phase 50Hz<\/td>\n380V 3-phase 50Hz<\/td>\n<\/tr>\n
Total Connected Load (kVA)<\/td>\n15<\/td>\n25<\/td>\n45<\/td>\n<\/tr>\n<\/tbody>\n<\/table>\n

How to Read the Specification Sheet Line by Line<\/h3>\n

Working Range or Travels<\/strong><\/p>\n

The max turning diameter is the largest workpiece that can swing over the bed without collision. The entry level 360 mm suits brake discs and small hydraulic fittings. The mid range 500 mm covers most shaft work and automotive couplings. The high specification 800 mm handles large flanges and oilfield components. Max turning length is the longest part between centers or in chuck-and-center configuration. Add 200 mm clearance for tailstock quill travel when ordering between-centers work.<\/p>\n

Spindle Speed and Power<\/strong><\/p>\n

Higher rpm suits smaller diameters and aluminum. Lower rpm with higher torque handles large steel forgings. The 7.5 kW entry spindle peaks at 3500 rpm for finishing. The 22 kW high-spec spindle delivers constant power from 200\u20132000 rpm for heavy roughing. Check the torque curve, not just the kW rating. A 11 kW FANUC \u03b1i series spindle motor at 1500 rpm produces roughly 70 Nm; at 3000 rpm this drops to 35 Nm.<\/p>\n

Spindle Taper and Chuck Size<\/strong><\/p>\n

A2-5, A2-6 and A2-8 are short-taper flange mountings. Larger numbers mean larger through-hole diameters and bolt circles. A2-5 accepts chucks to 200 mm. A2-6 handles 250\u2013315 mm chucks with through-hole to 75 mm for bar work. A2-8 is for 380 mm chucks and 105 mm bar capacity. Hydraulic chucks clamp consistently at 25\u201370 bar; manual chucks cost less but slow changeover.<\/p>\n

Guideway Type<\/strong><\/p>\n

Hardened box ways ( scraped Turcite-B or PTFE lined, 55 HRC minimum ) absorb vibration in interrupted cuts and heavy depths of cut. Linear roller guides (HIWIN HG series or PMI MSA series, 45 mm rail common ) allow faster rapids and tighter positioning but have lower damping. For mixed batch work with frequent stops and starts, linear guides reduce non-cutting time by 15\u201325 percent. For continuous cast iron or Inconel roughing, box ways extend insert life.<\/p>\n

Rapid Traverse and Feed Rate<\/strong><\/p>\n

Rapid traverse is the non-cutting positioning speed. Feed rate is the programmed cutting speed in mm\/rev or mm\/min. Entry machines at 15 m\/min X rapid spend more time in air. Mid-range machines at 20 m\/min match turret indexing times. High-spec machines often run slower rapids (16 m\/min) due to mass, but use direct-drive ballscrews with 32 mm diameter and 10 mm pitch to maintain thrust.<\/p>\n

Positioning Accuracy and Repeatability<\/strong><\/p>\n

Positioning accuracy is the deviation from commanded position over full travel. Repeatability is the spread of multiple approaches to the same point. \u00b10.020 mm entry accuracy is acceptable for ISO IT9 tolerances. \u00b10.005 mm repeatability on high-spec machines supports IT6 grinding-preparation work. Laser compensation and ballscrew pre-tensioning improve both; ask if these are included or optional.<\/p>\n

Tool Stations and Change Time<\/strong><\/p>\n

An 8-station turret limits you to 4 turning + 4 drilling tools with no backup. 12 stations allow roughing, finishing, grooving, threading and drilling without manual changeover. Y-axis capability on high-spec machines permits off-center milling and polygon turning. Turret indexing time is 0.15\u20130.25 sec per station for servo turrets; hydraulic turrets run 0.4\u20130.6 sec.<\/p>\n

Control System<\/strong><\/p>\n

GSK 980TDi and KND K2000TF are Chinese-developed controls with lathe-specific canned cycles. They cost 30\u201340 percent less than imported alternatives. FANUC 0i-TF dominates resale value and operator familiarity globally. Siemens 828D offers better PLC access and servo trace diagnostics. FANUC 0i-TF Plus and Siemens 840D sl support 5-axis interpolation and synchronized spindles for mill-turn. Control choice affects spare part availability in your region.<\/p>\n

Supply Voltage and Connected Load<\/strong><\/p>\n

380V 50Hz is standard Chinese export. For 220V 60Hz regions (North America, parts of Japan, Taiwan) a step-up transformer 220V\u2192380V is required, sized 1.25\u00d7 the connected load. A 25 kVA machine needs 32 kVA transformer minimum. Voltage fluctuation beyond \u00b110 percent requires servo stabilizer or AVR. Specify if your site runs 415V or 440V; most motor windings tolerate \u00b110 percent but control electronics need tight regulation.<\/p>\n

Machine Net Weight and Floor Space<\/strong><\/p>\n

Weight correlates with rigidity. The entry 2200 kg machine ships in a single 20-foot container with room for accessories. The 4500 kg mid-range machine needs careful load distribution in a 20-foot container or a 40-foot container alone. The 12500 kg high-spec machine requires flat-rack or breakbulk shipment. Floor space includes operator access panels and chip conveyor clearance. Add 1000 mm minimum behind the machine for electrical cabinet ventilation.<\/p>\n

Trade Terms and Export Documentation<\/h3>\n

FOB CIF CFR EXW<\/strong><\/p>\n

EXW (Ex Works) means you arrange everything from the factory gate. FOB (Free On Board) includes inland transport and export customs to the departure port. CFR (Cost and Freight) adds ocean freight to your port. CIF (Cost Insurance Freight) adds marine insurance. For CNC lathes, FOB Chinese port (Qingdao, Shanghai, Tianjin) is standard. CIF adds 800\u20132500 USD depending on destination and machine weight. CFR is rarely used; most buyers prefer CIF or FOB.<\/p>\n

Payment Terms<\/strong><\/p>\n

T\/T (Telegraphic Transfer) with 30 percent advance, 70 percent before shipment is standard for first orders. L\/C (Letter of Credit) adds 300\u2013800 USD bank charges and 2\u20134 weeks processing. Some suppliers accept 100 percent L\/C at sight for established dealers. For orders above 150,000 USD, consider staged payments tied to factory acceptance test completion.<\/p>\n

HS Code and Customs<\/strong><\/p>\n

HS 8458.11.00 covers horizontal CNC lathes. HS 8458.91.00 covers other CNC lathes. Correct classification determines import duty. Some countries apply lower duties to machines with control systems from specific origins; verify with your customs broker.<\/p>\n

CE Marking and Documentation<\/strong><\/p>\n

CE marking on the machine plate and in the declaration of conformity is mandatory for European Economic Area import. The technical file includes risk assessment per EN ISO 12100, electrical safety per EN 60204-1, and EMC per EN 61000-6-2 \/ 6-4. For non-European destinations, CE documentation still signals compliance level. Request the NB (Notified Body) number if third-party certification was used; self-certified CE is common but less robust.<\/p>\n

Packing List and Certificate of Origin<\/strong><\/p>\n

The packing list details each crate, net and gross weight, and dimensions. Use it to verify container loading and plan unloading equipment. The Certificate of Origin (Form A for GSP countries, COO for others) affects preferential duty rates. Chinese-origin machines may face anti-dumping duties in specific markets; check before ordering.<\/p>\n

Foundation and Unloading<\/strong><\/p>\n

Entry machines at 2200 kg unload with 3-ton forklift or pallet jack on flat concrete. Mid-range at 4500 kg needs 5-ton forklift or overhead crane with 3-meter lift height. High-spec at 12500 kg requires 10-ton crane, foundation bolts M24 or M30 into 200 mm reinforced concrete, and precision leveling to 0.02 mm\/m using epoxy grout or adjustable wedge plates. Vibration isolation pads reduce transmitted force to nearby machines.<\/p>\n

Installation and Training<\/strong><\/p>\n

Factory technicians typically need 3\u20135 days for entry machines, 5\u20137 days for mid-range, and 10\u201314 days for high-spec with live tooling. Training covers programming, tool presetting, maintenance schedules, and alarm recovery. Insist on written acceptance criteria: positioning accuracy checked with laser interferometer, repeatability with 10-cycle ballbar test, and circular interpolation with 150 mm radius test.<\/p>\n

Spare Parts and Consumables<\/strong><\/p>\n

Standard spare parts list includes turret proximity switches, spindle encoder, coolant pump, and one set of chuck jaws. Consumables are inserts, coolant concentrate, and hydraulic oil. Ask for 2-year critical parts availability commitment and whether parts ship from factory or regional warehouse. Lead time for custom configurations is 45\u201360 days. Standard configurations from stock ship in 15\u201325 days after payment confirmation.<\/p>\n

CNC Lathe Machine Price and What Drives It<\/h2>\n\n\n\n\n\n\n\n\n\n\n
Class<\/th>\nTypical Working Range or Power<\/th>\nControl or Source Example<\/th>\nIndicative FOB USD<\/th>\n<\/tr>\n<\/thead>\n
Entry-level flat bed CNC lathe<\/td>\n500 mm swing \u00d7 1000 mm between centers, 5.5 kW spindle, A2-5 nose<\/td>\nGSK 980TDi or KND K1000Ti<\/td>\n18,000 \u2013 28,000<\/td>\n<\/tr>\n
Mid-range flat bed CNC lathe<\/td>\n615 mm swing \u00d7 1500 mm, 7.5 kW spindle, A2-6 nose, 4-position turret<\/td>\nGSK 980TDi or Syntec 21TA<\/td>\n28,000 \u2013 42,000<\/td>\n<\/tr>\n
Slant bed CNC lathe light duty<\/td>\n8-inch chuck, 360 mm max turning diameter, 5.5 kW, linear guides<\/td>\nSyntec 21TA or Mitsubishi M80<\/td>\n32,000 \u2013 48,000<\/td>\n<\/tr>\n
Slant bed CNC lathe standard<\/td>\n10-inch chuck, 400 mm swing over bed, 11 kW spindle, A2-8, 8-station turret<\/td>\nFANUC 0i-TF Plus or Siemens 828D<\/td>\n55,000 \u2013 85,000<\/td>\n<\/tr>\n
Heavy-duty slant bed \/ turning center<\/td>\n12-inch chuck, 500 mm swing, 15 kW spindle, 12-station driven turret, Y-axis<\/td>\nFANUC 0i-TF Plus or Siemens 828D<\/td>\n85,000 \u2013 140,000<\/td>\n<\/tr>\n
Twin-spindle turning center with sub-spindle<\/td>\nDual 10-inch chuck, bar feeder ready, 11 kW main + 7.5 kW sub, full C-axis<\/td>\nFANUC 31i-B or Siemens 840D sl<\/td>\n180,000 \u2013 320,000<\/td>\n<\/tr>\n<\/tbody>\n<\/table>\n

What Actually Makes Up The Machine Price<\/h3>\n

A CNC lathe shipped from China to your port breaks into roughly twelve cost layers. The proportions below are typical for a mid-range slant bed machine in the 55,000\u201385,000 USD FOB band. Your actual quote will shift based on currency, steel prices and control availability.<\/p>\n\n\n\n\n\n\n\n\n\n\n\n\n\n\n\n\n
Cost Layer<\/th>\nTypical Share of FOB<\/th>\nNotes<\/th>\n<\/tr>\n<\/thead>\n
Casting \/ bed and frame<\/td>\n8 \u2013 12 %<\/td>\nHT250 or HT300 resin sand casting; stress relieved. A 400 mm swing slant bed machine with Meehanite-grade casting runs heavier and costs 15 \u2013 20 % more than HT250<\/td>\n<\/tr>\n
Guideways and ball screws<\/td>\n6 \u2013 10 %<\/td>\nHIWIN or PMI linear roller guides on X\/Z; C3 or C5 grade ground ball screws. Hardened box ways add 4 \u2013 6 % but suit interrupted cuts<\/td>\n<\/tr>\n
Spindle assembly<\/td>\n10 \u2013 14 %<\/td>\nIncludes motor, bearings (typically NSK or SKF), A2-6 or A2-8 nose, through-hole diameter. Built-in motor spindles for high rpm add 25 \u2013 40 %<\/td>\n<\/tr>\n
Control system and servo package<\/td>\n18 \u2013 28 %<\/td>\nFANUC or Siemens dominate this band. GSK or KND cuts this to 8 \u2013 12 % but narrows your service network and part program portability<\/td>\n<\/tr>\n
Tool turret<\/td>\n6 \u2013 10 %<\/td>\n8-station electric vs. 12-station servo-driven with live tooling. Driven tools for milling\/C-axis add 40 \u2013 60 %<\/td>\n<\/tr>\n
Sheet metal, coolant system, chip conveyor<\/td>\n4 \u2013 6 %<\/td>\nOften underestimated; poor coolant filtration raises downstream failure rates<\/td>\n<\/tr>\n
Assembly labor and factory overhead<\/td>\n5 \u2013 8 %<\/td>\nLower in inland provinces; higher near coastal export hubs<\/td>\n<\/tr>\n
Factory testing and runoff<\/td>\n2 \u2013 3 %<\/td>\nProper ball bar testing and laser alignment take 8 \u2013 16 hours<\/td>\n<\/tr>\n
Export packing (sea-worthy crate)<\/td>\n2 \u2013 3 %<\/td>\nVacuum-sealed with VCI film, plywood crate, steel base. A 6,500 kg machine needs a 40 ft container; two smaller lathes may fit<\/td>\n<\/tr>\n
Inland freight to port<\/td>\n1 \u2013 2 %<\/td>\nQingdao, Shanghai or Shenzhen depending on factory location<\/td>\n<\/tr>\n
Sea freight (ocean)<\/td>\n3 \u2013 6 %<\/td>\nVaries wildly by destination; Southeast Asia 800\u20131,500 USD, East Africa 2,500\u20134,500 USD, Eastern Europe 3,000\u20135,500 USD per 40 ft<\/td>\n<\/tr>\n
Insurance (110 % CIF value)<\/td>\n0.3 \u2013 0.5 %<\/td>\nAll-risks marine policy<\/td>\n<\/tr>\n<\/tbody>\n<\/table>\n

Two line items usually dominate: the control system brand and, on laser-equipped hybrid machines, the laser source brand. On a pure CNC lathe, the control plus servo package is the single largest variable. Switching from GSK 980TDi to FANUC 0i-TF Plus on the same mechanical platform typically adds 12,000\u201318,000 USD to FOB. The laser source question applies if you are buying a turn-mill center with laser-assisted features or a separate fiber laser machine\u2014Raycus is the common Chinese source at 1.5\u20133 kW, MAX Photonics sits in the middle, and IPG Photonics (Germany\/US) commands 40\u201360 % more for equivalent wattage.<\/p>\n

Why The Cheapest Quote Is Cheaper<\/h3>\n

Suppliers do not cut price by negotiating with themselves. The gap between a 28,000 USD and a 42,000 USD machine with nominally the same swing and length comes from specific, traceable corners:<\/p>\n

Lighter casting.<\/strong> A 360 mm swing lathe at 2,800 kg net weight versus 3,600 kg for a competitor usually means thinner wall sections in the bed casting or omission of internal ribbing. The machine chatters on heavy cuts and loses positioning accuracy as the bed flexes. HT250 is the minimum acceptable grade; HT300 or Meehanite costs more but holds geometry after years of thermal cycling.<\/p>\n

Lower-grade ball screws or unbranded linear guides.<\/strong> C5 grade ground ball screws from a known manufacturer (HIWIN, THK, PMI) cost roughly double C7 rolled screws. The cheaper screws show 0.02\u20130.04 mm backlash within 2,000 hours versus 0.005 mm maintained over 10,000 hours for C5. Unbranded linear guides may lack the preload consistency for 0.015 mm repeatability.<\/p>\n

Unbranded spindle motor or bearings.<\/strong> A 7.5 kW spindle with domestic bearings rated for 3,000 rpm may cost 800 USD versus 2,200 USD for an equivalent with NSK or SKF bearings and a Siemens or Yaskawa motor. Thermal runaway and premature bearing failure are the usual failure modes.<\/p>\n

Simplified turret.<\/strong> A 4-station bolt-on tool post versus an 8-station servo turret saves 1,500\u20132,500 USD but caps your productivity and tool capacity.<\/p>\n

No C-axis or live tooling provision.<\/strong> If your parts need cross-drilled holes or milled flats, a lathe without C-axis forces secondary operations. The upfront savings disappear in cycle time and WIP.<\/p>\n

Five-Year Running Cost Comparison<\/h3>\n

The table below compares two 400 mm swing \u00d7 1,000 mm machines over five years at 2,000 hours\/year operation. Machine A is entry-level at 24,000 USD FOB. Machine B is mid-range at 68,000 USD FOB with FANUC control and higher-grade components.<\/p>\n\n\n\n\n\n\n\n\n\n\n\n\n\n\n
Cost Item<\/th>\nMachine A (Entry)<\/th>\nMachine B (Mid-Range)<\/th>\nNotes<\/th>\n<\/tr>\n<\/thead>\n
Initial investment (CIF + duty + local clearance, estimated)<\/td>\n31,000<\/td>\n88,000<\/td>\nDuty varies 5\u201315 % by HS code and destination; VAT 10\u201320 %<\/td>\n<\/tr>\n
Power consumption (2,000 hr\/yr \u00d7 5 yr)<\/td>\n18,000 kWh total<\/td>\n16,500 kWh total<\/td>\nMachine B runs regenerative drives and higher-efficiency spindle motor<\/td>\n<\/tr>\n
Power cost at 0.12 USD\/kWh<\/td>\n10,800<\/td>\n7,920<\/td>\n<\/td>\n<\/tr>\n
Consumables (inserts, coolant, way oil, filters)<\/td>\n14,500<\/td>\n12,800<\/td>\nBetter coolant system and chip management reduce waste<\/td>\n<\/tr>\n
Expected downtime (unplanned)<\/td>\n280 hours<\/td>\n85 hours<\/td>\nBased on field data from comparable installations; includes waiting for parts<\/td>\n<\/tr>\n
Downtime cost at 45 USD\/hour lost production<\/td>\n12,600<\/td>\n3,825<\/td>\nConservative; job shops with tight deadlines lose more<\/td>\n<\/tr>\n
Spare parts (turret seals, ball screw replacement, one spindle bearing set)<\/td>\n8,200<\/td>\n4,600<\/td>\nFANUC parts network vs. limited GSK availability outside China<\/td>\n<\/tr>\n
Control obsolescence risk<\/td>\nModerate\u2014GSK 980TDi may lack upgrade path<\/td>\nLow\u2014FANUC 0i-TF Plus supported through 2040+<\/td>\n<\/td>\n<\/tr>\n
Five-year total cost of ownership<\/strong><\/td>\n76,100<\/strong><\/td>\n117,145<\/strong><\/td>\n<\/td>\n<\/tr>\n
Cost per productive hour<\/strong><\/td>\n7.61<\/strong><\/td>\n11.71<\/strong><\/td>\n<\/td>\n<\/tr>\n<\/tbody>\n<\/table>\n

Machine B costs 54 % more to own over five years but delivers 70 % less unplanned downtime and wider part-program compatibility with your customers’ preferred post-processors. Machine A suits a shop with abundant labor, in-house maintenance capability and low mix\/high volume work where the machine runs the same cycle indefinitely. Machine B suits job shops, automotive tier-one suppliers, and anyone running lights-out or unmanned shifts where a 4-hour breakdown costs more than the monthly payment.<\/p>\n

Lead Time And What Stretches It<\/h3>\n

Standard lead time from confirmed payment to port departure is 35\u201355 days for machines with GSK or Syntec controls. FANUC or Siemens controls add 15\u201325 days because the supplier must pull stock from their distributor with confirmed serial numbers. Custom specifications\u2014larger swing, special spindle bore, bar feeder interface, parts catcher, robot loading prep\u2014add 10\u201320 days each.<\/p>\n

Peak season (March\u2013May post-Chinese New Year, September\u2013November pre-year-end) stretches lead times by 10\u201315 days. Control shortages during semiconductor supply crunches have in the past added 60+ days for FANUC systems.<\/p>\n

Qualifying The Supplier Beyond The Quote<\/h3>\n

Request these specifics to separate a build-to-stock exporter from a manufacturer with engineering depth:<\/p>\n