NEW SMTCL VTC160100 Series CNC Vertical Lathe
The SMTCL VTC160100 is a high-capacity CNC vertical lathe for machining large disc-type, ring-type, flange-type and other rotary components.
Unlike the larger VTC200140 / VTC250140 / VTC350140 / VTC500160 machines, the VTC160100 is available across both SMTCL VTC product platforms:
• VTC160100Q – General-Purpose CNC Vertical Lathe
• VTC160100H – High-Efficiency CNC Vertical Lathe
• VTC160100Hm – High-Efficiency Turn-Milling CNC Vertical Lathe
This gives customers the ability to select the machine according to the actual production requirement rather than simply choosing one fixed performance level.
The VTC160100 provides:
• 1600 mm workbench
• Up to 2000 mm rotary diameter
• Up to 1800 mm turning diameter
• 1200 mm workpiece height
• High workbench torque
• Heavy-duty vertical turning capability
• Optional integrated turn-milling capability
Typical workpieces include:
• Large rings
• Large flanges
• Bearing rings
• Large discs
• Covers
• Pump components
• Valve components
• Automotive and energy-sector components
• Heavy rotary housings
• General industrial rotary parts
VTC160100 Key Turning Specifications
Worktable and Workpiece Capacity
• Workbench diameter: Ø1600 mm
• Maximum rotary diameter: Ø2000 mm
• Maximum turning diameter: Ø1800 mm
• Maximum workpiece height: 1200 mm
Workbench Performance
VTC160100Q
• Maximum workbench torque: approximately 22,697 Nm
• Maximum workbench speed: approximately 254 rpm
• Main motor rated power: 37 kW
VTC160100H
• Maximum workbench torque: approximately 22,960 Nm
• Maximum workbench speed: approximately 300 rpm
• Main motor rated power: 41 kW
Ram
• Ram cross section: 240 × 240 mm
Beam
• Beam lifting movement: 800 mm
Axis Travel
• X-axis travel: -50 to +1055 mm
• Z-axis travel: 1000 mm
Rapid Traverse
• X-axis rapid traverse: 12 m/min
• Z-axis rapid traverse: 10 m/min
Turning Tool
• Turning tool shank: 40 × 40 mm
Machine Weight
• Approximate machine weight: 26,000 kg
Representative Positioning Accuracy
VTC160100Q / H:
• X-axis positioning accuracy:
approximately 0.030 / 0.025 mm
• Z-axis positioning accuracy:
approximately 0.030 / 0.025 mm
Representative Repeat Positioning Accuracy
• X-axis:
approximately 0.010 / 0.008 mm
• Z-axis:
approximately 0.010 / 0.008 mm
Final accuracy values depend on the selected Q or H configuration and measuring specification.
VTC160100Hm Turn-Milling Configuration
The VTC160100Hm adds powered milling capability and C-axis control to the VTC160100 platform.
Representative specifications include:
• Workbench diameter: Ø1600 mm
• Maximum rotary diameter: Ø2000 mm
• Maximum turning diameter: Ø1800 mm
• Maximum workpiece height: 1200 mm
• Maximum workbench torque: approximately 22,960 Nm
• Maximum workbench speed: approximately 300 rpm
• Turning main motor rated power: 41 kW
• Milling spindle motor rated power: 10 kW
• Maximum milling spindle speed: 1800 rpm
• Maximum milling spindle torque: 407 Nm
• C-axis rotary speed range: 0.01–6 rpm
• Ram cross section: 240 × 240 mm
• Beam lifting movement: 800 mm
• X-axis travel: -800 to +1055 mm
• Z-axis travel: 1000 mm
• X-axis rapid traverse: 12 m/min
• Z-axis rapid traverse: 10 m/min
• Cutting feed range: 1–3000 mm/min
• Tool magazine capacity: 16 tools
• Approximate machine weight: 27,000 kg
Hm Accuracy
Representative catalogue values:
• X-axis positioning accuracy: approximately 0.020 mm
• Z-axis positioning accuracy: approximately 0.020 mm
• C-axis positioning accuracy: approximately 15 arc-seconds / 360°
• X-axis repeat positioning accuracy: approximately 0.008 mm
• Z-axis repeat positioning accuracy: approximately 0.008 mm
• C-axis repeat positioning accuracy: approximately 8 arc-seconds
Three VTC160100 Configurations
VTC160100Q – General-Purpose
The manufacturer positions the VTC-Q Series as a cost-effective, convenient-to-operate general-purpose vertical lathe.
Key characteristics include:
• High rigidity
• Large torque
• Stable machining
• Practical general-purpose configuration
• Cost-effective machine selection
Typical industries include:
• Pump and valve
• General industry
• Engineering machinery
The Q configuration is best suited where:
• General turning is the main requirement
• The workpiece fits comfortably within the VTC160100 envelope
• Turn-milling is not required
• Overall machine value is important
• A practical general-purpose vertical lathe is preferred
VTC160100H – High-Efficiency
The VTC-H Series is the higher-efficiency platform.
The manufacturer highlights:
• Excellent rigidity
• High stability
• Higher machining accuracy
• High production efficiency
• Higher-quality functional components
Typical applications include:
• Wind power
• New energy
• Automotive
• Bearing manufacturing
The H configuration is best suited where:
• Production stability is more important
• Higher machining accuracy is required
• Higher production efficiency is valuable
• More demanding workpieces are expected
VTC160100Hm – Turn-Milling
The Hm configuration adds:
• Powered milling spindle
• C-axis operation
• Automatic tool magazine
• Expanded radial machining range
This allows selected turning and milling processes to be completed in one setup.
Best suited where:
• Turning and milling are both required
• Bolt-circle holes are present
• Face features need milling
• Drilling and tapping are required
• C-axis positioning is beneficial
• Re-clamping should be reduced
Why Turn-Milling Matters
Large ring, flange and disc components often require machining on several different machines.
A conventional process may involve:
• Vertical turning
• Crane unloading
• Transfer to milling machine
• Re-clamping
• Re-establishing datum
• Drilling
• Tapping
• Inspection
The VTC160100Hm can potentially combine selected operations in one setup.
Benefits can include:
• Reduced crane handling
• Reduced workpiece movement
• Reduced re-clamping
• Improved datum consistency
• Reduced setup time
• Lower work-in-process time
• Better positional relationship between turned and milled features
Typical Hm Operations
• External turning
• Internal turning
• Facing
• Grooving
• Profile turning
• Face milling
• Drilling
• Tapping
• Bolt-circle machining
• Indexed milling
• C-axis positioning
High-Rigidity Casting Structure
The VTC Series uses box-type integrated cast-iron construction.
The manufacturer highlights:
• Thick-wall construction
• Reinforced rib structure
• Low centre of gravity
• Heat treatment for residual-stress relief
• Precision scraping of important mating surfaces
This structure is intended to maintain machining accuracy and stability during heavy cutting.
High-Rigidity Hard Guideways
The two principal feed axes use:
• High-rigidity hard guideways
The guide surfaces receive specialised treatment and low-friction wear plates.
Benefits include:
• High rigidity
• Strong load-bearing capacity
• Good accuracy retention
• Stable heavy cutting
• High resistance to cutting-force deformation
The manufacturer specifically positions this structure for heavy-load machining.
240 × 240 mm Forged-Steel Ram
The VTC160100 uses a:
• 240 × 240 mm forged-steel ram
The ram surface is hardened and the guideway mating surfaces are precision scraped.
The manufacturer identifies the newer ram structure as substantially enlarged compared with the previous generation.
Benefits include:
• Increased bending rigidity
• Greater torsional stiffness
• Stable vertical machining
• High positioning accuracy
• Improved resistance to cutting torque
High-Rigidity Main Machine Structure
The beam, column and ram-support system are designed for high-rigidity and heavy-load machining.
The manufacturer highlights:
• Increased column thickness
• Increased guideway span
• Reinforced beam construction
• Improved resistance to ram leverage forces
These measures help maintain machining stability on larger rotary workpieces.
Symmetrical Thermal Structure
The base and column follow a left-right symmetrical layout.
The design aims to provide:
• Balanced heat distribution
• Reduced thermal deformation
• Better long-term geometric stability
Finite-element topology analysis is used to optimise the machine structure.
Internal mesh-style ribs further increase structural rigidity.
Crossed-Roller Worktable Bearing
The VTC Series uses a high-accuracy large-specification crossed-roller bearing.
The bearing arrangement is designed to withstand combined:
• Axial load
• Radial load
• Workpiece mass
• Cutting load
• Workbench torque
The manufacturer identifies this as an important contributor to:
• Strong workbench support
• High rigidity
• Fast positioning
• High-speed and high-torque cutting
High-Accuracy Main Transmission
The main transmission uses a geared arrangement instead of a simple belt-only drive.
The manufacturer highlights:
• Accurate segmentation
• Positioning capability
• High stability
• Turn-milling capability
• C-axis functionality on applicable machines
A constant-temperature cooling device is incorporated in the spindle system to reduce thermal axial displacement.
Double-Motor Workbench Drive
The VTC platform uses two main motors to drive the workbench.
The CNC system synchronises the two motors.
This arrangement helps provide:
• Stable table rotation
• Accurate indexing
• High torque
• C-axis anti-backlash control
• Stable surface quality
• Turn-milling speed regulation
Automatic Tool Change
Where required, the VTC platform can use a suspension-disc tool magazine.
The VTC160100Hm configuration provides:
• 16-tool magazine
This supports automatic tool changes for processes such as:
• Milling
• Drilling
• Tapping
• Boring
• Multi-process machining
Turn-Milling Modularisation
The VTC Series uses a modular turn-milling design.
The slide structure is compatible with both:
• Turning ram
and
• Turn-milling ram
This allows the machine configuration to be matched more closely to the actual production requirement.
Machine Layout Advantage
The manufacturer also provides modular layout concepts including:
• Single-ram configuration
• Double-ram configuration on applicable machines
The double-ram concept is intended for higher machining efficiency where suitable.
Final configuration availability should be confirmed for the selected VTC160100 machine.
Installation Advantage
An important manufacturer-documented feature is that:
• VTC160 and smaller specifications can be lifted as a complete machine
This can help reduce:
• Installation work
• On-site assembly
• Commissioning time
This is an important practical difference between VTC160100 and the larger VTC200140-and-above machines.
Typical Turning Operations
The VTC160100 can support:
• External turning
• Internal turning
• Facing
• Grooving
• Bore machining
• Profile turning
• Ring machining
• Flange machining
• Large-diameter contour machining
Typical Industries
Manufacturer-documented VTC applications include:
VTC-H Series
• Wind power
• New energy
• Automotive
• Bearing manufacturing
VTC-Q Series
• Pump and valve
• General industry
• Engineering machinery
Manufacturer Application Examples
VTC-H examples include:
• Wind-power bearing – GCr15
Machining:
• External diameter
• End face
• Inner bore
• Engine component – titanium alloy
Machining:
• External diameter
• Groove
• End face
• Pump body – cast iron
Machining:
• Inner bore
• End face
VTC-Q example:
• Pump / valve component
Materials:
• Cast iron
• Cast steel
• Carbon steel
Why Consider the VTC160100?
The VTC160100 is particularly attractive because it provides a substantial 1.8 metre turning envelope while retaining the choice between Q, H and Hm configurations.
Key capabilities include:
• Ø1600 mm workbench
• Ø2000 mm maximum rotary diameter
• Ø1800 mm maximum turning diameter
• 1200 mm workpiece height
• Up to approximately 22,960 Nm workbench torque
• Up to approximately 300 rpm workbench speed
• 37 / 41 kW Q/H main motor options
• 240 × 240 mm forged-steel ram
• 800 mm beam lifting movement
• X-axis travel -50 to +1055 mm
• 1000 mm Z-axis travel
• 12 / 10 m/min X/Z rapid traverse
• 40 × 40 mm turning tools
• Approx. 26 tonne turning machine
• Q general-purpose configuration
• H high-efficiency configuration
• Hm turn-milling configuration
• 10 kW milling spindle on Hm
• 1800 rpm milling speed
• 407 Nm milling torque
• C-axis 0.01–6 rpm
• 16-tool magazine
• Approx. 27 tonne Hm machine
VTC160100 Compared with VTC125100
VTC125100
• Workbench: Ø1250 mm
• Maximum rotary diameter: Ø1600 mm
• Maximum turning diameter: Ø1400 mm
• Maximum workpiece height: 1000 mm
• Workbench torque:
approximately 15,480 / 15,626 Nm
• Maximum speed:
approximately 370 / 400 rpm
• Main motor:
37 / 41 kW
• Ram:
200 × 200 mm
• X-axis:
-50 to +875 mm
• Z-axis:
1000 mm
• Approximate machine weight:
25,000 kg
VTC160100
• Workbench: Ø1600 mm
• Maximum rotary diameter: Ø2000 mm
• Maximum turning diameter: Ø1800 mm
• Maximum workpiece height: 1200 mm
• Workbench torque:
approximately 22,697 / 22,960 Nm
• Maximum speed:
approximately 254 / 300 rpm
• Main motor:
37 / 41 kW
• Ram:
240 × 240 mm
• X-axis:
-50 to +1055 mm
• Z-axis:
1000 mm
• Approximate machine weight:
26,000 kg
The step from VTC125100 to VTC160100 provides:
• 350 mm larger workbench
• 400 mm greater turning diameter
• 200 mm additional workpiece height
• Substantially greater workbench torque
• Larger 240 × 240 mm ram
• Greater radial travel
Both remain available as:
• Q
• H
• Hm
VTC160100 Compared with VTC200140
This is an especially important model boundary.
VTC160100
• Q / H / Hm available
• Workbench: Ø1600 mm
• Maximum turning diameter: Ø1800 mm
• Maximum workpiece height: 1200 mm
• Workbench torque: up to approx. 22,960 Nm
• Main motor: up to 41 kW
• Ram: 240 × 240 mm
• Beam movement: 800 mm
• Z travel: 1000 mm
• Machine weight: approx. 26 tonnes
VTC200140
• H / Hm only
• Workbench: Ø2000 mm
• Maximum turning diameter: Ø2300 mm
• Maximum workpiece height: 1600 mm
• Workbench torque: approx. 49,800 Nm
• Main motor: 51 kW
• Ram: 240 × 240 mm
• Beam movement: 1400 mm
• Z travel: 1400 mm
• Machine weight: approx. 45 tonnes
The move from VTC160100 to VTC200140 is therefore a major structural step.
It provides:
• 500 mm additional turning diameter
• 400 mm additional workpiece height
• More than double the workbench torque
• Higher main motor power
• Much larger beam and Z-axis capacity
• Machine mass increasing from approximately 26 to 45 tonnes
VTC160100 should therefore not be bypassed automatically when the workpiece remains within its capacity.
VTC Q/H/Hm Selection Guide
VTC-Q
General-Purpose
Best suited where:
• Practical general turning is required
• Overall value is important
• Pump and valve work is common
• General engineering dominates
VTC-H
High-Efficiency
Best suited where:
• Higher production stability is required
• Higher machining accuracy is important
• Wind power, bearing, automotive or new-energy applications are involved
• Higher-quality functional configuration is preferred
VTC-Hm
Turn-Milling
Best suited where:
• Turning and milling must be combined
• C-axis positioning is required
• Drilling and tapping are required
• Re-clamping should be reduced
• Complete machining provides a production advantage
VTC Series Capacity Guide
VTC10080
• Workbench: Ø1000 mm
• Maximum turning diameter: Ø1100 mm
• Maximum workpiece height: 800 mm
VTC125100
• Workbench: Ø1250 mm
• Maximum turning diameter: Ø1400 mm
• Maximum workpiece height: 1000 mm
VTC160100
• Workbench: Ø1600 mm
• Maximum turning diameter: Ø1800 mm
• Maximum workpiece height: 1200 mm
VTC200140
• Workbench: Ø2000 mm
• Maximum turning diameter: Ø2300 mm
• Maximum workpiece height: 1600 mm
The VTC160100 is therefore the largest current size where the customer can still choose between:
• General-purpose Q
• High-efficiency H
• Turn-milling Hm
Machine Selection and Configuration
The correct VTC160100 configuration should be selected according to the actual component and manufacturing process.
Please provide:
• Maximum raw workpiece diameter
• Maximum finished turning diameter
• Maximum workpiece height
• Maximum workpiece weight
• Workpiece material
• Drawing or 3D model
• External turning requirements
• Internal turning requirements
• Bore size and depth
• Facing requirements
• Grooving requirements
• Milling requirements
• Drilling requirements
• Tapping requirements
• C-axis requirements
• Required tolerances
• Surface finish requirements
• Production quantity
• Workholding requirement
• Tooling requirement
• Tool magazine requirement
• Workpiece probing requirement
• Tool measurement requirement
• Coolant requirement
• Chip-management requirement
• Automation requirement
• Workshop installation conditions
MachineryPLUS can assist with selecting the appropriate VTC160100Q, VTC160100H or VTC160100Hm configuration according to the actual machining process.
Configuration Before Quotation
The following should be confirmed before final quotation:
• VTC160100Q / VTC160100H / VTC160100Hm
• CNC system
• Workbench and clamping arrangement
• Main drive configuration
• Turning tooling
• Milling tooling if Hm is selected
• C-axis requirement
• Tool magazine requirement
• Linear scales
• Workpiece probing
• Tool measurement
• Coolant system
• High-pressure coolant if required
• Chip-removal system
• Guarding
• Oil mist collection
• Automation interface
• Foundation and installation
• Site electrical requirements
Final specifications depend on the selected configuration.
Manufacturer technical parameters are subject to change with continued product development.
Complete Your Machine Setup
MachineryPLUS can also assist with:
• CNC vertical lathe selection
• Heavy-duty turning tools
• Grooving tools
• Boring bars
• Face mills
• Milling cutters
• Indexable drills
• Threading tools
• Tool holders
• Large-component workholding
• Custom fixtures
• Workpiece measurement
• Tool measurement
• Coolant systems
• Chip management
• Tool management
• Workpiece handling
• Automation
• Integrated manufacturing solutions
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