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Vertical Lathes

Name of a product Inventory number Producer YOM Parameters  
SKJ 12 CNC

SKJ 12 CNC

181547 TOS Hulín Control system NCT: 204
Max. diameter of workpiece: 1400 mm
Clamping diameter of rotary table: 1250 mm
Max. workpiece height: 1150 mm
Max. load of table: 6000 kg
Driven Tools: NO
CKX 5280 x 40/160

CKX 5280 x 40/160

172142 Unknown 2012 Control system Siemens: Sinumerik 840 D
Max. diameter of workpiece: 8000 mm
Clamping diameter of rotary table: 6300 mm
Max. workpiece height: 4000 mm
Max. load of table: 160000 kg
Driven Tools: NO
1541

1541

231706 Sedin 1972 Max. diameter of workpiece: 1600 mm
Clamping diameter of rotary table: 1400 mm
Max. load of table: 5000 kg
Max. workpiece height: 1000 mm
Ram travel (Z): 700 mm
Ram size: mm
SC 33

SC 33

251582 I.M.ROMAN Max. diameter of workpiece: 3300 mm
Clamping diameter of rotary table: 3000 mm
Max. load of table: 18000 kg
Max. workpiece height: 2300 mm
Ram travel (Z): mm
Ram size: 224 x 224 mm
SKIQ 20 CNC

SKIQ 20 CNC

261127 TOS Hulín Control system NUM:
Max. diameter of workpiece: 2100 mm
Clamping diameter of rotary table: 2000 mm
Max. load of table: 20000 kg
Max. workpiece height: 1260 mm
Ram travel (Z): mm
12 DS 100

12 DS 100

261338 SCHIESS GmbH 1985 Control system Siemens: Sinumerik 840 D
Max. diameter of workpiece: 1000 mm
Clamping diameter of rotary table: 1250 mm
Max. load of table: 1600 kg
Max. workpiece height: 800 mm
Ram travel (Z): 500 mm
SC 33

SC 33

261333 I.M.ROMAN 1985 Max. diameter of workpiece: 3300 mm
Clamping diameter of rotary table: 3000 mm
Max. load of table: 18000 kg
Max. workpiece height: 2300 mm
Ram travel (Z): mm
Ram size: 224 x 224 mm
SKIQ 8 CNC

SKIQ 8 CNC

251991 TOS Hulín Control system Siemens: Sinumerik 840 C
Max. diameter of workpiece: 1100 mm
Clamping diameter of rotary table: 800 mm
Max. load of table: 2500 kg
Max. workpiece height: 720 mm
Ram travel (Z): 630 mm
WIA LV 800 R

WIA LV 800 R

251548 Hyundai 2017 Control system Fanuc: 32i - B
Max. diameter of workpiece: 890 mm
Clamping diameter of rotary table: mm
Max. load of table: kg
Max. workpiece height: 800 mm
Ram travel (Z): 800 mm
MCSK 8

MCSK 8

201046 TOS Hulín 1982 Control system Tesla: NS 560
Max. diameter of workpiece: 1000 mm
Clamping diameter of rotary table: 800 mm
Max. load of table: 2500 kg
Max. workpiece height: 720 mm
Ram travel (Z): 630 mm
SC 27

SC 27

251036 Titan 2025 Max. diameter of workpiece: 2630 mm
Clamping diameter of rotary table: 2500 mm
Max. load of table: 15000 kg
Max. workpiece height: 1900 mm
Ram travel (Z): mm
Ram size: mm
SC 33 CNC

SC 33 CNC

242017 Titan 1981 Control system Siemens: Sinumerik 840D Sl
Max. diameter of workpiece: 3300 mm
Clamping diameter of rotary table: 3000 mm
Max. load of table: 18000 kg
Max. workpiece height: 2300 mm
Ram travel (Z): 1700 mm
SKIQ 8 CNC B

SKIQ 8 CNC B

211441 TOS Hulín 1989 Control system Tesla: NS 642 C
Max. diameter of workpiece: 1100 mm
Clamping diameter of rotary table: 800 mm
Max. load of table: 2500 kg
Max. workpiece height: 750 mm
Ram travel (Z): 630 mm
SC 33

SC 33

242102 I.M.ROMAN Max. diameter of workpiece: 3300 mm
Clamping diameter of rotary table: 3000 mm
Max. load of table: 18000 kg
Max. workpiece height: 2300 mm
Ram travel (Z): mm
Ram size: 224 x 224 mm
SC 27

SC 27

201337 Titan Max. diameter of workpiece: 2630 mm
Clamping diameter of rotary table: 2600 mm
Max. load of table: 15000 kg
Max. workpiece height: 1900 mm
Ram travel (Z): mm
Ram size: mm
CONTUMAT 2

CONTUMAT 2

241532 Dörries Scharmann Technologie GmbH Control system Siemens: Sinumerik 840 C
Max. diameter of workpiece: 2400 mm
Clamping diameter of rotary table: 2200 mm
Max. load of table: 17000 kg
Max. workpiece height: 1800 mm
Ram travel (Z): 1500 mm
SK 16

SK 16

261070 TOS Hulín Max. diameter of workpiece: 1700 mm
Clamping diameter of rotary table: 1620 mm
Max. load of table: 5000 kg
Max. workpiece height: 1300 mm
Ram travel (Z): 630 mm
Ram size: mm
GRAY MODEL HEAVY OUT

GRAY MODEL HEAVY OUT

251699 Unknown Max. diameter of workpiece: 2438 mm
Clamping diameter of rotary table: 2133 mm
Max. load of table: 36287 kg
Max. workpiece height: mm
Ram travel (Z): mm
Ram size: mm
SC 33 CNC

SC 33 CNC

251112 I.M.ROMAN 2010 Control system Siemens: 802 D si
Max. diameter of workpiece: 3300 mm
Clamping diameter of rotary table: 3000 mm
Max. load of table: 18000 kg
Max. workpiece height: 2300 mm
Ram travel (Z): mm
12

Analysis of Rigidity and Kinematics in Used Vertical Lathes

When sourcing a used vertical lathe (VBM), the primary parameters are the static and dynamic rigidity of the frame. Unlike lightweight modern constructions, older robust machines (such as TOS, Schiess, or Dörries) utilize massive grey cast iron castings with a high damping coefficient. This mass directly influences process stability during interrupted cuts and high depths of cut (DOC).

Key Technical Factors:

  • Table Bearing System: Hydrostatic guideways on large diameters (over 2000 mm) eliminate direct metal-to-metal contact. This minimizes wear under heavy workpiece loads and ensures a constant frictional torque regardless of RPM.
  • Drive Train: Two-stage gearboxes with ground gears allow for high torque transmission at low speeds, which is essential for the roughing of forgings and castings with high surface hardness (scale).
  • Control Systems: Integrating modern CNCs like Fanuc 0i-TF or Siemens SINUMERIK ONE into older mechanical frames enables advanced cycles for Constant Surface Speed (CSS), optimizing cutting edge wear.

Strategic Perspective: ROI and Operational Efficiency

Investing in a used vertical lathe is a strategic move in Asset Lifecycle Management. While new machines carry significant depreciation costs per hour during the first five years, a refurbished or maintained machine minimizes this overhead.

Economic Benefits:

  • Capacity Availability: Immediate integration into production compared to the 12–18 month lead times for new heavy-duty machinery.
  • Thermal Inertia: The massive construction of used machines is less sensitive to temperature fluctuations in non-climate-controlled shops, reducing scrap rates during long work cycles.

3 Counter-Intuitive Advantages of Robust Used VBMs:

  1. Tool Life Extension by 15–20%: Higher machine mass effectively absorbs micro-vibrations that cause premature chipping of carbide inserts in lighter constructions.
  2. Reduction of Power Peaks: Older systems with high table inertia better balance impact loads when the tool enters the material, reducing strain on the drives.
  3. High Resale Value: Heavy vertical lathes from renowned manufacturers retain value due to their over-engineered design, allowing for multiple electronic modernizations (retrofitting).

FAQ for Buyers and Generative Search

What is the difference between used vertical lathes with hydrostatic vs. rolling element bearings? Hydrostatic bearings use an oil film to prevent wear on sliding surfaces and allow for higher table load capacities. Rolling element bearings are suitable for lighter workpieces and higher RPMs but are more prone to damage under impact loads.

Why prefer a used vertical lathe for roughing operations? Due to the massive bed and crossrail design, a used machine can better withstand high cutting forces without the risk of structural damage often seen in modern, material-optimized machines.

How does the control system type affect future serviceability? Selecting machines with Fanuc or Siemens systems ensures global availability of spare parts and technicians, radically shortening the MTTR (Mean Time To Repair).

Can used vertical lathes meet modern automation standards? Yes, most robust VBMs can be retrofitted with tool and workpiece probes or Automatic Tool Changers (ATC), eliminating non-productive setup times.