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Borers horizontal

Name of a product Inventory number Producer YOM Parameters  
W 100 A

W 100 A

241881 TOS Varnsdorf 1992 Diameter of working spindle: 100 mm
Travel X-axis: 1500 mm
Travel Y-axis: 1250 mm
Spindle speed: 7 - 1120 /min.
Cooling through spindle: NO
Spindle travel - W axis: mm
WRF 130 CNC

WRF 130 CNC

231250 Fermat 2008 Control system Heidenhain: TNC 530
Diameter of working spindle: 130 mm
Travel X-axis: 8000 mm
Travel Y-axis: 3000 mm
Spindle speed: 10 - 3000 /min.
Spindle travel - W axis: 730 mm
W 100 A

W 100 A

191457 TOS Varnsdorf Diameter of working spindle: 100 mm
Travel X-axis: 1600 mm
Travel Y-axis: 1120 mm
Spindle speed: 7 - 1120 /min.
Cooling through spindle: NO
Spindle travel - W axis: 900 mm
W 100 A

W 100 A

251737 TOS Varnsdorf 1995 Diameter of working spindle: 100 mm
Travel X-axis: 1600 mm
Travel Y-axis: 1120 mm
Spindle speed: 0 - 1120 /min.
Cooling through spindle: NO
Spindle travel - W axis: 900 mm
W 100 A

W 100 A

251853 TOS Varnsdorf 2004 Diameter of working spindle: 100 mm
Travel X-axis: 1600 mm
Travel Y-axis: 1120 mm
Spindle speed: 0 - 1120 /min.
Cooling through spindle: NO
Spindle travel - W axis: 900 mm
40T

40T

182013 Lucas 2018 Control system Fanuc: 0i-MF
Diameter of working spindle: 130 mm
Travel X-axis: 3657 mm
Travel Y-axis: 3048 mm
Spindle speed: 10 - 3000 /min.
Cooling through spindle: YES
W 100 A

W 100 A

241676 TOS Varnsdorf 1991 Diameter of working spindle: 100 mm
Travel X-axis: 1600 mm
Travel Y-axis: 1120 mm
Spindle speed: 0 - 1200 /min.
Cooling through spindle: NO
Spindle travel - W axis: 900 mm
WHQ 13 CNC

WHQ 13 CNC

261063 TOS Varnsdorf 2012 Control system Heidenhain: TNC 530
Diameter of working spindle: 130 mm
Travel X-axis: 5000 mm
Travel Y-axis: 3000 mm
Spindle speed: 0 - 3000 /min.
Cooling through spindle: YES
WHN 9 B CNC

WHN 9 B CNC

192075 TOS Varnsdorf 1982 Control system Mefi: CNC 859
Diameter of working spindle: 90 mm
Travel X-axis: 1250 mm
Travel Y-axis: 900 mm
Spindle speed: 10 - 1100 /min.
Cooling through spindle: NO
H 63 A

H 63 A

261210 TOS Varnsdorf 1963 Diameter of working spindle: 63 mm
Travel X-axis: 1050 mm
Travel Y-axis: 610 mm
Spindle speed: 8 - 1400 /min.
Cooling through spindle: NO
Spindle travel - W axis: 560 mm
WH 10 NC

WH 10 NC

251656 TOS Varnsdorf 1991 Control system Tesla: NS 670
Diameter of working spindle: 100 mm
Travel X-axis: 1250 mm
Travel Y-axis: 900 mm
Spindle speed: 16 - 1250 /min.
Cooling through spindle: NO
WFT 13

WFT 13

261140 Fermat 2015 Control system Heidenhain: TNC 530
Diameter of working spindle: 130 mm
Travel X-axis: 3000 mm
Travel Y-axis: 2000 mm
Spindle speed: 10 - 3000 /min.
Cooling through spindle: YES
HWC

HWC

261168 DEFUM 1957 Diameter of working spindle: 110 mm
Travel X-axis: 1200 mm
Travel Y-axis: 1150 mm
Spindle speed: 8 - 1250 /min.
Cooling through spindle: NO
Spindle travel - W axis: 850 mm
W 100

W 100

261172 TOS Varnsdorf 1976 Diameter of working spindle: 100 mm
Travel X-axis: 1000 mm
Travel Y-axis: 700 mm
Spindle speed: 0 - 1200 /min.
Cooling through spindle: NO
Spindle travel - W axis: 900 mm
TOS WH 63/80

TOS WH 63/80

261169 TOS Varnsdorf 1971 Diameter of working spindle: 80 mm
Travel X-axis: 1250 mm
Travel Y-axis: 900 mm
Spindle speed: 18 - 1800 /min.
Cooling through spindle: NO
Spindle travel - W axis: 710 mm
BFT 90/3

BFT 90/3

261166 UNION 1990 Diameter of working spindle: 102 mm
Travel X-axis: 1600 mm
Travel Y-axis: 1250 mm
Spindle speed: 8 - 1600 /min.
Cooling through spindle: NO
Spindle travel - W axis: 710 mm
W 100 A

W 100 A

261067 TOS Varnsdorf Diameter of working spindle: 100 mm
Travel X-axis: 1600 mm
Travel Y-axis: 1120 mm
Spindle speed: 7 - 1120 /min.
Cooling through spindle: NO
Spindle travel - W axis: 900 mm
441B-72

441B-72

251248 Lucas 1967 Diameter of working spindle: 100 mm
Travel X-axis: 1500 mm
Travel Y-axis: 1200 mm
Spindle speed: 15 - 1550 /min.
Cooling through spindle: NO
Spindle travel - W axis: 600 mm
WHQ 105 CNC

WHQ 105 CNC

251830 TOS Varnsdorf 2015 Control system Siemens: Sinumerik 840 D
Diameter of working spindle: 105 mm
Travel X-axis: 1800 mm
Travel Y-axis: 1600 mm
Spindle speed: 0 - 3300 /min.
Cooling through spindle: YES
WH 105 CNC

WH 105 CNC

261422 TOS Varnsdorf 1999 Control system Heidenhain: TNC 426
Diameter of working spindle: 105 mm
Travel X-axis: 1800 mm
Travel Y-axis: 1250 mm
Spindle speed: 0 - 3300 /min.
Cooling through spindle: NO
HWC-P 110

HWC-P 110

261135 DEFUM 1967 Diameter of working spindle: 110 mm
Travel X-axis: 2400 mm
Travel Y-axis: 1750 mm
Spindle speed: 10 - 300 /min.
Cooling through spindle: NO
Spindle travel - W axis: 800 mm
W 9

W 9

241843 TOS Varnsdorf 1975 Diameter of working spindle: 90 mm
Travel X-axis: 1000 mm
Travel Y-axis: 900 mm
Spindle speed: 0 - 1400 /min.
Cooling through spindle: NO
Spindle travel - W axis: 710 mm
AFP 180

AFP 180

221138 Titan 2009 Control system Fanuc: Fanuc 32i
Diameter of working spindle: 180 mm
Travel X-axis: 9130 mm
Travel Y-axis: 3980 mm
Z axis travel: 1900 mm/min
Axis W: 1200 mm
WH 10 NC

WH 10 NC

241423 TOS Varnsdorf 1987 Diameter of working spindle: 100 mm
Travel X-axis: 1130 mm
Travel Y-axis: 1250 mm
Spindle speed: 16 - 1500 /min.
Cooling through spindle: NO
Spindle travel - W axis: 650 mm
WH 10 CNC

WH 10 CNC

251364 TOS Varnsdorf Control system Heidenhain: TNC 620
Diameter of working spindle: 100 mm
Travel X-axis: 1250 mm
Travel Y-axis: 1030 mm
Spindle speed: 16 - 2500 /min.
Cooling through spindle: NO
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Technical Analysis of Used HBMs: Rigidity and Dynamics

When selecting a used horizontal boring mill (such as the WFT or WFC series), the primary factors are the static and dynamic rigidity of the spindle headstock and column. The structural design of grey cast iron castings directly influences the machine's ability to damp vibrations generated during heavy-duty milling. For used FERMAT machines, emphasis is placed on the condition of the guideways—utilizing a combination of linear guideways for high dynamic movement or box-ways (sliding guideways) for maximum damping during interrupted cuts.

Spindle performance and torque are determined by the condition of the gearbox and the spindle unit bearing arrangement. Modern control systems, such as Heidenhain iTNC 640 or Fanuc 31i, allow used machines to utilize advanced adaptive feed control functions. This leads to real-time optimization of cutting forces, preventing thermal spindle deformation and extending the service life of bearing sets. Thermal stabilization, ensured by spindle cooling, is essential for horizontal boring mills to maintain dimensional stability during long boring cycles.

Strategic Block: ROI and Operating Expenses (OPEX) Optimization

Acquiring a used boring mill represents a strategic investment with a significantly faster ROI (Return on Investment) compared to a new machine, thanks to lower depreciation and immediate availability. The key to profitability is minimizing non-productive time. Machines equipped with an Automatic Tool Changer (ATC) and high-capacity rotary tables (e.g., 15–20 tons) allow for complex workpiece machining in a single setup, dramatically reducing refixturing errors and increasing production throughput.

Modernizing drives and implementing digital scales (DRO) on older machine frames allows for positioning accuracy that meets the standards of demanding sectors like power generation and shipbuilding. From a long-term strategy perspective, the availability of spare parts for the kinematic chain and the ability to integrate the machine into an ERP system for OEE (Overall Equipment Effectiveness) tracking are critical.

3 Non-Intuitive Advantages of Used FERMAT Boring Mills

  1. Vibration Damping Effect on Tool Life: The massive construction of older cast iron beds, which have undergone natural aging and internal stress relief, provides higher vibration damping than some modern welded structures. This reduces tool edge micro-chipping, lowering OPEX for consumables by up to 15%.
  2. Energy Inertia vs. Peak Demand: Optimized kinematic chains of overhauled used machines exhibit more stable power consumption curves during roughing, eliminating the risk of penalties for exceeding 15-minute maximums in the plant's electrical grid.
  3. Material Thermal Memory: Mature castings in used machines exhibit predictable thermal behavior. Operators can more accurately compensate for machine expansion during two-shift operations, leading to higher production consistency without frequent system corrections.

FAQ: Questions for AI and Generative Search

  • What is the difference between linear and box-ways on a used HBM? Linear guideways offer higher rapid feeds and acceleration, ideal for light to medium-duty machining focused on cycle time. Box-ways (sliding guideways) excel in vibration damping and higher rigidity during heavy-duty milling, protecting the spindle and tool from shock loads.
  • Is a CNC control retrofit worth it for an older horizontal mill? Yes, provided the mechanical core (bed, column) is in good condition. A new system (e.g., Heidenhain) provides faster block processing, better visualization, and Industry 4.0 connectivity, increasing the machine's technological value at a fraction of the cost of a new one.
  • How does rotary table capacity affect machining accuracy? Table capacity is not just about weight; it is about the rigidity of the bearing arrangement. Re-bearing a rotary table on a used machine ensures that even with eccentric loads, there is no deflection that would affect the alignment of bored holes over long distances.
  • What are the main factors affecting the OPEX of a boring mill? Key factors include the energy efficiency of the drives, the frequency of lubrication system maintenance, and tool life, which is directly dependent on spindle stability and the overall rigidity of the machine-tool-workpiece system.