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Lathes

Name of a product Inventory number Producer YOM Parameters  
A 20 B SPEEDY

A 20 B SPEEDY

071435 KOVOSVIT MAS, a.s. Max. bar diameter: 18/22 mm
Turning lenght: 350 mm
Machine dimensions l x w x h: 1840x880x1766 mm
Main motor power: 4 kW
Machine weight: 1480 kg
Spindle speed: 38 - 6306 /min.
Cincom A20-VII

Cincom A20-VII

251630 Citizen 2010 Control system Fanuc: 18i-TB
Turn table diameter: 20 mm
Turning lenght: 165 mm
Sloping bed: NO
Y axis: YES
Counterspindle: YES
LYNX 220 A

LYNX 220 A

261323 Doosan 2005 Control system Fanuc: i Series
Turn table diameter: 320 mm
Turning lenght: 322 mm
Sloping bed: YES
Spindle bore: 45 mm
Turret head: YES
TOS ZEBRAK

TOS ZEBRAK

261273 TOS Čelákovice 1958 Swing over bed: 280 mm
Distance between centres: 750 mm
Max. weight of workpiece: kg
SUA 125 P

SUA 125 P

261420 ŠKODA MACHINE TOOL a.s. 1986 Swing over bed: 1320 mm
Distance between centres: 5000 mm
Max. weight of workpiece: 14000 kg
Swing over cross slide: 950 mm
Main motor power: 45 kW
Max. torque of spindle: 18000 Nm
HIT-250 MS

HIT-250 MS

221540 Hyundai 2004 Control system Siemens: Sinumerik 840 D
Turn table diameter: 590 mm
Turning lenght: 650 mm
Sloping bed: YES
Y axis: NO
Counterspindle: YES
TechM XD20H

TechM XD20H

231566 HANWHA TECH 2011 Max. length of workpiece: 180 mm
Swing over bed: 20 mm
Control system Fanuc: i Series
Counterspindle: YES
Spindle speed: 0 - 8000 /min.
ST-25

ST-25

241759 Haas Automation 2017 Control system Haas:
Turn table diameter: 298 mm
Turning lenght: 571 mm
Sloping bed: YES
Spindle bore: 76 mm
Turret head: YES
Hyperturn 665 MC Plus

Hyperturn 665 MC Plus

251167 EMCO 2007 Control system Siemens: Sinumerik 840 D
Turn table diameter: 430 mm
Turning lenght: 744 mm
Sloping bed: YES
Y axis: YES
Travel Y-axis: 100 (± 50) mm
HD 2200 C

HD 2200 C

241255 Hyundai 2019 Control system Siemens: Sinumerik 828 D
Turn table diameter: 390 mm
Turning lenght: 550 mm
Sloping bed: YES
Spindle bore: 81 mm
Turret head: YES
SN 320/750

SN 320/750

251913 TOS Trenčín Swing over bed: 320 mm
Distance between centres: 750 mm
Max. weight of workpiece: kg
Main motor power: 3 kW
Machine dimensions l x w x h: 1980 x 1035 x 1486 mm mm
Machine weight: 1550 kg
SN  71 C/4000

SN 71 C/4000

251847 TOS Trenčín Swing over bed: 710 mm
Distance between centres: 4000 mm
Max. length of workpiece: 4000 mm
CTV 250

CTV 250

231474 DMG 2012 Control system Siemens: Sinumerik 840 D
Turn table diameter: 350 mm
Turning lenght: 200 mm
Sloping bed: NO
Y axis: YES
Travel Y-axis (lathe): 90 mm
NEF 400

NEF 400

261363 Gildemeister 2006 Control system Fanuc: Fanuc 210i
Turn table diameter: 400 mm
Turning lenght: 650 mm
Sloping bed: YES
Spindle bore: 65 mm
Turret head: YES
S 2100/10000

S 2100/10000

251977 ŠKODA MACHINE TOOL a.s. Control system Siemens:
Turn table diameter: mm
Turning lenght: 10000 mm
Sloping bed: NO
Spindle bore: mm
Turret head: NO
DP 3000

DP 3000

251653 Unknown 1957 Swing over bed: 1250 mm
Distance between centres: mm
Max. weight of workpiece: kg
Face plate diameter: 3000 mm
Swing over cross slide: 2200 mm
Machine weight: 17000 kg
A32

A32

251360 Citizen 2014 Max. length of workpiece: 320 mm
Swing over bed: 32 mm
Control system Mitsubishi:
Spindle speed: 0 - 8000 /min.
Bar loader: YES
Max. bar diameter: 32 mm
TC 320 LTY

TC 320 LTY

242034 XYZ 2013 Control system Siemens: Sinumerik 828 D
Turn table diameter: 320 mm
Turning lenght: 550 mm
Sloping bed: YES
Y axis: YES
Travel Y-axis (lathe): 100 +/- 50 mm
T-7

T-7

251854 LEADWELL Control system Fanuc: 0i - TC
Turn table diameter: 350 mm
Turning lenght: 550 mm
Sloping bed: YES
Spindle bore: 65 mm
Turret head: YES
CTX 400

CTX 400

251997 Gildemeister 1998 Control system Heidenhain:
Turn table diameter: 420 mm
Turning lenght: 600 mm
Sloping bed: YES
Y axis: NO
Counterspindle: NO
Masturn MT 32 CNC

Masturn MT 32 CNC

251513 KOVOSVIT MAS, a.s. 2010 Control system Heidenhain: Manual Plus 4110
Turn table diameter: 320 mm
Turning lenght: 800 mm
Sloping bed: NO
Spindle bore: 50 mm
Turret head: NO
SUI 63 NC/1500

SUI 63 NC/1500

092574 TOS Hulín 1986 Swing over bed: 630 mm
Distance between centres: mm
Max. weight of workpiece: kg
DECO 8sp

DECO 8sp

251714 Tornos Bechler 2006 Max. length of workpiece: mm
Swing over bed: mm
Control system Fanuc: Fanuc 32i
Sloping bed: YES
Y axis: YES
Travel Y-axis (lathe): 227 mm
PUMA 400B

PUMA 400B

241592 Doosan 2006 Control system Fanuc: 21i - TB
Turn table diameter: 670 mm
Turning lenght: 1000 mm
Sloping bed: YES
Spindle bore: 160 mm
Turret head: YES
MASTURN 50/1500

MASTURN 50/1500

251228 KOVOSVIT MAS, a.s. 2002 Control system Siemens: Sinumerik 810
Turn table diameter: 500 mm
Turning lenght: 1500 mm
Sloping bed: NO
Spindle bore: 82 mm
Turret head: NO
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Technical Analysis: Kinematics and Stability of Turning Centers

For used lathes—whether classic center lathes or modern CNC centers—the primary performance indicator is the static rigidity of the bed. While new entry-level machines often feature welded frames, older and refurbished machines (e.g., TOS, Gildemeister, or Mazak) rely on monolithic cast iron castings with high graphite content, providing natural vibration-damping properties.

Key Technical Factors:

  • Guideway Width and Hardening: Wide prismatic guideways ensure even force distribution during heavy roughing. Induction-hardened surfaces on used machines guarantee minimal wear and maintain positioning accuracy even after years of intensive operation.
  • Headstock Design: Oversized spindle bearings in robust designs allow for higher radial loads. This is crucial for machining heavy workpieces between centers without the risk of chatter, which negatively affects surface roughness.
  • Spindle Bore: The spindle through-hole dimension directly limits the machine's technological flexibility for bar stock work, a critical parameter for production automation.

Strategic Block: ROI and Lifecycle Management

Purchasing a used lathe offers engineering companies a tool for rapid production capacity expansion with minimal impact on cash flow. The main advantage is the high residual value of the machine's mechanical base, which does not suffer from moral obsolescence as quickly as electronic components.

Economic Benefits:

  • Accelerated Depreciation: Lower capital expenditure (CAPEX) allows for a faster break-even point, vital for custom production with variable volume predictions.
  • Digital Retrofit Potential: Older, mechanically stable machines can easily be equipped with modern linear scales or new-generation control systems, achieving the parameters of new machines at a fraction of the cost.

3 Counter-Intuitive Advantages of Robust Used Lathes:

  1. 12–18% Reduction in Insert Costs: Higher internal damping of the cast iron bed eliminates micro-vibrations, which in light constructions cause thermal cracking and premature edge wear.
  2. Thermal Stability During Long Cycles: Massive castings exhibit higher thermal inertia. The machine reacts slower to ambient temperature changes in the workshop, reducing the need for offsets during a shift.
  3. Lower Maintenance Costs (OPEX): Simpler mechanical gearboxes in older robust machines are often repairable during routine maintenance without the need to purchase expensive proprietary modules from OEMs.

FAQ: Insights for Expert Systems and Buyers

  • How does machine weight affect surface quality? Machine mass is directly related to its ability to absorb resonances. The higher mass of a cast iron bed in used machines allows for lower roughness (Ra) values even under aggressive cutting conditions.
  • Why monitor bed width on used lathes? Bed width defines the support base for the carriage. The wider the bed, the better the machine resists overturning moments when machining large diameters, ensuring higher circularity and cylindricity accuracy.
  • Is spare part availability an issue for older CNC systems? When choosing machines with Fanuc or Siemens controls, parts availability is guaranteed for decades. Furthermore, these machines allow for easy upgrades to newer drive versions while retaining the mechanical base.
  • How to optimize the productivity of an older center lathe? Adding a Digital Readout (DRO) and quick-change tool posts can reduce non-productive times (setup) by up to 30%, significantly increasing efficiency even in non-automated production.