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Lathes Centre to diameter 800 mm

Name of a product Inventory number Producer YOM Parameters  
SN 63 B/3000

SN 63 B/3000

241153 TOS Trenčín Swing over bed: 630 mm
Distance between centres: 3000 mm
Max. weight of workpiece: kg
Swing over cross slide: 340 mm
Chuck diameter: 315 mm
Spindle bore: 72 mm
SN 71 B/2000

SN 71 B/2000

241614 TOS Trenčín 1979 Swing over bed: 710 mm
Distance between centres: 2000 mm
Max. weight of workpiece: 850 kg
Swing over cross slide: 420 mm
Spindle speed: 10 - 1000 /min.
Main motor power: 7,5 kW
SN 63 B/2000

SN 63 B/2000

241617 TOS Trenčín 1994 Swing over bed: 630 mm
Distance between centres: 2000 mm
Max. weight of workpiece: kg
Swing over cross slide: 340 mm
Main motor power: 7.5 kW
Machine dimensions l x w x h: 4000 x 1400 x 1520 mm
SN 50 C/2000

SN 50 C/2000

251283 Trens 2005 Swing over bed: 500 mm
Distance between centres: 2000 mm
Max. weight of workpiece: 300 kg
Swing over cross slide: 270 mm
Spindle bore: 52 mm
Spindle speed: 22 - 2000 /min.
SN 71 B/4000

SN 71 B/4000

241564 TOS Trenčín 1978 Swing over bed: 710 mm
Max. length of workpiece: 4000 mm
Swing over cross slide: 420 mm
Spindle speed: 90 - 1000 /min.
Machine dimensions l x w x h: 6000x1440x1560 mm
Machine weight: 3500 kg
SN 400 Classic/1000

SN 400 Classic/1000

242072 TOS Trenčín Swing over bed: 410 mm
Distance between centres: 1000 mm
Max. weight of workpiece: 1000 kg
Swing over cross slide: 225 mm
Spindle speed: 12 - 2000 /min.
Main motor power: 7,5 kW
SUI 80/5000

SUI 80/5000

232016 TOS Trenčín Swing over bed: 800 mm
Distance between centres: 5000 mm
Max. weight of workpiece: 1200 kg
Swing over cross slide: 520 mm
Spindle bore: 70 mm
Spindle speed: 14 - 1400 /min.
Strung SN 320

Strung SN 320

261268 Strunguri ARAD 1980 Swing over bed: 320 mm
Distance between centres: 750 mm
TUR 50S

TUR 50S

261319 PONAR-WROCŁAW 1976 Swing over bed: 500 mm
Distance between centres: 1000 mm
Max. weight of workpiece: 1200 kg
Spindle bore: 70 mm
Machine weight: 2720 kg
SV 18 RA

SV 18 RA

241685 TOS Trenčín 1983 Swing over bed: 380 mm
Distance between centres: 1250 mm
Max. weight of workpiece: 300 kg
Machine dimensions l x w x h: 2500x950x1200 mm
Machine weight: 1800 kg
SN 50 B / 1500

SN 50 B / 1500

261255 TOS Trenčín Swing over bed: 500 mm
Distance between centres: 1500 mm
Max. weight of workpiece: 300 kg
Spindle speed: 45 - 2000 /min.
Spindle bore: 50,8 mm
Machine weight: 1745 kg
SN 710 S

SN 710 S

261334 Trens 2015 Swing over bed: 720 mm
Distance between centres: 1500 mm
Max. weight of workpiece: 1500 kg
Machine weight: 3090 kg
Total input: 7,5 kVA
Spindle speed: 10 - 1600 /min.
SN 63 B/1500

SN 63 B/1500

251658 TOS Trenčín 1986 Swing over bed: 630 mm
Distance between centres: 1500 mm
Max. weight of workpiece: kg
Swing over cross slide: 340 mm
Main motor power: 7,5 kW
Machine dimensions l x w x h: 4000 x 1400 mm
SUI 50 1000

SUI 50 1000

261041 TOS Trenčín Swing over bed: 500 mm
Distance between centres: 1000 mm
Max. weight of workpiece: kg
Swing over cross slide: 320 mm
Spindle speed: 0 - 2240 /min.
Rapid feed: 3,5 m/min
SN 63 C/1500

SN 63 C/1500

261130 TOS Trenčín Swing over bed: 630 mm
Distance between centres: 1500 mm
Max. weight of workpiece: kg
Swing over cross slide: 340 mm
Main motor power: 7,5 kW
Machine dimensions l x w x h: 4000 x 1400 mm
SUI 63 B/2000

SUI 63 B/2000

242019 TOS Trenčín 1992 Swing over bed: 630 mm
Distance between centres: 2000 mm
Max. weight of workpiece: 1500 kg
Swing over cross slide: 340 mm
Main motor power: 11 kW
Machine dimensions l x w x h: 4000 x 1400 x 1520 mm
 SU 63 A

SU 63 A

261062 TOS Čelákovice 1992 Swing over bed: 630 mm
Distance between centres: 2000 mm
Max. weight of workpiece: 6000 kg
Machine weight: 5600 kg
Spindle bore: 60 mm
Swing over cross slide: 360 mm
SUS 63/2000

SUS 63/2000

251864 TOS Čelákovice Swing over bed: 630 mm
Distance between centres: 2000 mm
Max. weight of workpiece: 2000 kg
Swing over cross slide: 390 mm
Spindle bore: 81 mm
Spindle speed: - /min.
SN 50 B/2000

SN 50 B/2000

261397 TOS Trenčín Swing over bed: 500 mm
Distance between centres: 2000 mm
Max. weight of workpiece: kg
Swing over cross slide: 270 mm
Main motor power: 5,5 kW
Machine dimensions l x w x h: 1100 x 3575 mm
SN 50B/2000

SN 50B/2000

251846 TOS Trenčín Swing over bed: mm
Distance between centres: 500 mm
Max. weight of workpiece: 2000 kg
Turning lenght: mm
S 32/750

S 32/750

251446 TOS Čelákovice 1975 Swing over bed: 320 mm
Distance between centres: 750 mm
Max. weight of workpiece: 100 kg
Swing over cross slide: 190 mm
Spindle bore: 36 mm
Main motor power: 3 kW
SU 63 A/6500

SU 63 A/6500

241365 TOS Čelákovice 1965 Swing over bed: 630 mm
Distance between centres: 6500 mm
Max. weight of workpiece: 6000 kg
Swing over cross slide: 360 mm
Spindle bore: 60 mm
Spindle speed: 8 - 375 /min.
SV 18 RA/1250

SV 18 RA/1250

241246 TOS Trenčín Swing over bed: 380 mm
Distance between centres: 1250 mm
Max. weight of workpiece: 300 kg
SV 18 RA/750

SV 18 RA/750

241713 TOS Trenčín Swing over bed: 380 mm
Distance between centres: 750 mm
Max. weight of workpiece: 300 kg
Swing over cross slide: 215 mm
Spindle speed: 14 - 2800 /min.
Main motor power: 6 kW
SUS 63/2000

SUS 63/2000

251294 TOS Čelákovice 1990 Swing over bed: 630 mm
Distance between centres: 2000 mm
Max. weight of workpiece: 2000 kg
Swing over cross slide: 390 mm
Spindle bore: 81 mm
Spindle speed: 9 - /min.
12

Technical Analysis: Structural Rigidity and Mechanical Causality

In the segment of conventional lathes up to 800 mm (e.g., the legendary TOS SN, SUI series, or Meuser and VDF machines), the primary value carrier is the bed material composition. Unlike modern economy models, these machines use massive grey cast iron castings (GG25 to GG30) that have undergone natural aging. This eliminates the risk of deformation due to internal stress relief—a major advantage of used machines over new builds.

Key Technical Parameters and Their Impact:

  • Guideway Design: Wide prismatic ways with induction hardening (typically 50–55 HRC) ensure high carriage stability even during interrupted cuts. The large contact area distributes pressure and minimizes specific wear, directly affecting long-term dimensional stability.
  • Headstock Gearing: The use of ground alloy steel gears in an oil bath allows for the transfer of high torque without excessive heat. This is critical for operations like cutting large-pitch threads or machining difficult stainless steels.
  • Spindle Mounting: Oversized roller bearings with high dynamic load capacity allow for high radial loads without generating resonances that would cause 'surface waviness' on lighter machines.

Strategic Block: Economic Logic and Asset Management

For business owners and maintenance managers, purchasing a used conventional lathe up to 800 mm is a path to high process independence. Due to their mechanical concept, these machines are repairable with local resources, radically reducing the risk of long downtimes caused by the absence of proprietary electronics.

Investment Value Analysis:

  • Low CAPEX vs. High Utility: The purchase price of a used machine from an established brand is often lower than that of Asian new-builds, while mechanical stability and the ability to take heavy cuts ('power machining') are significantly higher.
  • High Market Liquidity: Machines like the TOS SN 50 or SN 71 have held their price steadily for decades. Investing in such an asset is considered low-risk with minimal market value amortization.

3 Counter-Intuitive Advantages of Conventional Lathes:

  1. Cost Reduction for Ceramics and Carbides: The massive cast iron bed acts as a mechanical damper. Reducing micro-vibrations at the tool entry extends the time between sharpening or edge replacement by up to 20%, optimizing direct operating costs (OPEX).
  2. Thermal Inertia in Single-Piece Production: The large casting mass reacts slower to local heating, meaning the machine 'doesn't walk' in dimensions as the headstock warms up during a shift.
  3. Diagnostic Haptic Feedback: The absence of electronic barriers allows an experienced turner to react to changes in cutting sound and vibration before damage occurs to the tool or workpiece—a common cause of expensive crashes in automated machines.