TACO = T {Transparency}, A {Accountability}, C {Consistency}, O {Originality},
CNC VDI Driven (Live) Tool Holder / Block
CNC VDI Driven (Live) Tool Holder / Block
CNC VDI Driven (Live) Tooling
📌 Purpose:
CNC VDI Driven (Live) Tooling
is a powerful enhancement for CNC lathes, enabling them to perform not just
turning, but also milling, drilling, and tapping—all in a single setup.
This dramatically boosts productivity and flexibility in machining operations.
v What
Is Driven (Live) Tooling?
Ø
Unlike static tools, live tools rotate
using power from the machine’s turret or spindle.
Ø
They’re mounted in VDI tool holders,
which are standardized for quick-change and precision alignment.
Ø
Commonly used in CNC turning centers with
live-tool turrets.
v Types
of VDI Live Tool Holders
Ø
Axial Live Tool Holders: Tool axis is
parallel to the spindle (ideal for face drilling).
Ø
Radial Live Tool Holders: Tool axis is
perpendicular to the spindle (used for side milling or drilling).
Ø
Adjustable Angle Holders: Allow custom
tool orientation for complex geometries.
v Key
Features
Ø
Quick-change design: One-screw locking
for fast tool swaps.
Ø
High precision: Serrated shafts and
anti-rotation pins ensure alignment and rigidity.
Ø
Custom fit: Designed to match specific
turret assemblies and bolt-hole patterns.
Ø
Durability: Made from hardened alloy
steel for long service life.
v Benefits
Ø
Reduces setups: Perform multiple
operations without moving the part.
Ø
Improves accuracy: Less repositioning
means tighter tolerances.
Ø
Saves time: Faster cycle times and fewer
tool changes.
Ø
Expands capabilities: Enables complex
part geometries on a lathe.
🏗️ Machine Compatibility:
CNC live tooling systems
can be seamlessly integrated with:
v CNC
turning centers & CNC lathe with live tooling facility – enabling
milling, drilling, and tapping operations alongside turning.
v Modern
CNC turn-mill machines – designed for high-rigidity live tooling (BMT/PTI)
and quick-change systems (VDI).
v CNC
machining centres for specific applications
v Common manufacturers that support live tooling – Haas, DMG-Mori, Mazak, Okuma, Emag, LMW
🎯 Types of Live CNC Drive Systems
|
Drive Type |
Standard / Origin |
Key Features |
Typical Applications |
|
Baruffaldi Drive |
Italian manufacturer
(Baruffaldi) |
Proprietary high‑precision
drive system; compact, rigid, optimized for heavy milling |
Found in premium CNC
lathes and turn‑mill centers requiring strong torque transmission |
|
DIN 5480 |
German DIN standard |
Involves involute splines for
torque transmission; standardized dimensions |
Widely used for turret–tool
coupling in European CNC machines |
|
DIN 5482 |
German DIN standard |
Similar to DIN 5480
but with different spline geometry (shorter engagement, finer pitch) |
Applied in lighter or
more compact live tool interfaces |
|
DIN 1809 |
German DIN standard |
Defines polygonal drive
connections (triangular/hexagonal forms) for precise centering and torque |
Used in specialized live tooling
systems where repeatability and rigidity are critical |
v Notes
on Compatibility
Ø
Baruffaldi is a proprietary system, so
tooling must match the machine builder’s turret design.
Ø
DIN 5480 & DIN 5482 are spline‑based
standards, ensuring interchangeability across machines that adopt them.
Ø
DIN 1809 polygonal drives are less common
but provide excellent centering accuracy and torque transfer.
v Summary
Ø
Baruffaldi → proprietary, high‑rigidity
drive.
Ø
DIN 5480 → standard involute spline
drive.
Ø
DIN 5482 → variant spline drive for
compact setups.
Ø DIN 1809 → polygonal drive for precision alignment.
⚠️ Important Note (Rewritten for Clarity):
Before placing an order, please select the desired type of VDI Drive End for the VDI Driven Tool Holder. > 💡 Prices may vary depending on the selected drive end type.
🎯 VDI Disk-Type Turret
This infographic illustrates the
configuration and capabilities of a VDI Disk-Type Turret system used in
CNC machining (specifically turning centers). It focuses on "Live
Tooling," which allows a lathe to perform milling, drilling, and tapping
operations by driving the cutting tool while the workpiece is positioned by the
main spindle.
The image is divided into two
main sections: operational types and toolholder orientation.
1. Operations with Disk-Type Turret (Top Section) : This section contrasts the two primary ways live tools interact with the workpiece based on how the tool holder is mounted.
Radial Operation
v Orientation:
The tool approaches the workpiece from the side (perpendicular to the spindle
axis).
v Tool
Holder: Uses radial tool holders with a 90° angle. The drive
mechanism inside the holder translates the rotation 90 degrees to power the
tool.
v Application:
Used for milling flats on the side of a cylinder, cross-drilling holes, or
engraving on the outer diameter.
v Safety
Note: Mind interference circles! This is a critical warning. Because radial
tools stick out sideways, the operator must calculate the clearance to ensure
the tool or holder does not crash into the machine enclosure, sheet metal, or
adjacent tools during rotation.
Axial Operation
v Orientation:
The tool approaches the workpiece from the front (parallel to the spindle
axis).
v Tool
Holder: Uses axial tool holders (straight version). The tool points
directly toward the spindle face.
v Application:
Used for face drilling, tapping, or milling features onto the face of the part
(off-center or on-center).
2. Right and Left Hand Versions (Bottom Section) : This section visualizes the geometric orientation of the tool holders relative to the machine's coordinate system.
v Coordinate
System: The diagram maps out the machine axes:
Ø Z-axis:
Parallel to the main spindle (longitudinal).
Ø X-axis:
Vertical (cross-slide movement).
Ø Y-axis:
Often a virtual or actual axis for off-center milling.
Ø C-axis
(C1): The rotational axis of the main spindle, allowing for precise
indexing of the part.
v Handedness
(Left vs. Right):
Ø Left
Hand: The tool holder is mounted on one side of the turret disk face.
Ø Right
Hand: The tool holder is mounted on the opposing side.
Ø Significance:
Selecting the correct "hand" is essential for ensuring the cutting
tool rotates in the correct direction relative to the workpiece and for
avoiding collisions with the chuck or machine components. It often dictates
which direction the turret disk must index.
Summary : This graphic serves as a quick-reference guide for CNC programmers and setup machinists. It reminds them that a Disk-Type VDI turret is versatile—capable of both face (axial) and diameter (radial) work—but requires careful selection of tool holder "handedness" and strict attention to clearance zones (interference circles) to prevent machine crashes.
🎯 VDI Star-Type Turret
This infographic is a guide for
CNC configuration, specifically focusing on complex multi-turret and
dual-spindle turning centers. Unlike the previous "Disk-Type" turret,
a Star-Type turret mounts tools on the outer diameter of the turret
body, radiating outward like the points of a star.
The guide is split into two
critical sections: the machine layout configuration and the specific tool
holder dimensions.
1. Multi-Spindle &
Multi-Turret Configuration (Top Section) : This complex diagram illustrates
how tool holder "handedness" (Left vs. Right) changes depending on
where the tool is mounted in the machine workspace.
v Machine
Architecture:
Ø Main
Spindle (Left): Controls the primary workpiece using axes Z1
(longitudinal) and C1 (rotational).
Ø Sub
Spindle (Right): Controls the secondary workpiece (for backside machining)
using axes Z2 and C2.
Ø Upper
& Lower Turrets: The machine features both an Upper Turret and a Lower
Turret. This allows for "pinch turning" (cutting with two tools
simultaneously) or machining on both spindles at the same time.
v Tool
Orientation Logic: The diagram acts as a matrix for selecting the correct
tool holder:
Ø Upper
Turret (Main Spindle): Shows how Right and Left-hand tools position the
cutter relative to the chuck.
Ø Lower
Turret (Main Spindle): Because the lower turret is inverted relative to the
upper one, the tool holder selection often mirrors the upper setup to achieve
the same cutting direction.
Ø Sub
Spindle Operations: The diagram repeats this logic for the Sub Spindle
(Upper Turret-2 and Lower Turret-2), ensuring the operator selects a holder
that points the tool toward the sub-spindle face.
2. Dimensional Accuracy &
Safety (Bottom Section) : This section highlights the specific geometry of
the tool holders and safety constraints.
Right vs. Left Hand Versions
v Visual
Identification: The diagram clearly distinguishes the casting and motor
orientation for Left Hand vs. Right Hand holders.
v Dimension
H:
Ø The
red brackets highlight Dimension H. This is the distance from the tool
holder's mounting base (the VDI shank interface) to the cutting tool's
centerline.
Ø Importance:
The operator must program this specific offset into the CNC controller. If
"Dimension H" is incorrect in the tool library, the tool will not be
on center, resulting in broken tools or parts with "pips" on the
face.
Safety Warning : "Please check interference circles with
fixed tools!" In a Star-Type
turret, space is extremely tight. Because tools stick out radially:
v Collision
Risk: The motor of a live tool (the boxy part of the holder) might
be wide enough to hit a static tool (like a boring bar) mounted in the
adjacent station.
v "Interference
Circle": This refers to the swept diameter of the turret when it
rotates. The operator must ensure that long tools do not crash into the sheet
metal, the slide covers, or the opposing spindle during tool changes.
Summary : This chart is
essential for Process Engineers and Setup Machinists. It serves
two main purposes:
- Procurement/Setup: Ensuring the shop buys or
selects the correct "hand" of tool holder depending on whether
they are machining on the Main or Sub spindle, and whether they are using
the Upper or Lower turret.
- Programming: Reminding the programmer to
account for the specific "H" offset and to simulate the
tool path carefully to avoid collisions in the crowded Star-Turret
environment.
Two Types of Cooling Methods
for CNC Tool Holders
- External Cooling – Uses nozzles to direct
coolant onto the cutting area from outside the tool holder.
- Through-Tool (Internal) Cooling – Delivers
coolant directly through the tool holder and cutting tool, reaching the
cutting edge more efficiently.
🎯 How to Read the Height Dimension of
Live Tools
This infographic provides a
critical guide for CNC programmers and setup machinists on how to correctly
measure and input the "H" dimension (Height offset) for driven (live)
tools. Getting this dimension wrong can lead to tool collisions or incorrect
machining depths.
The image differentiates between
two main types of live tools: Radial (Angle) and Axial
(Straight).
1. Radial (90°) Tool Holders
v Configuration: The
tool output is at a 90-degree angle to the mounting shank. These are used for
operations like cross-drilling or milling on the diameter of a part.
v H
Dimension Definition:
Ø
"On an angle style tool the H dimension is
the distance from the flush mounting face to the centerline of the
collet."
v Visual
Reference: In the top diagram, the red arrow marked H = 72 mm starts
at the flat face where the holder mounts to the turret and ends exactly at the
center axis of the rotating collet nut. This value effectively tells the
machine "how far out" the center of the drill or mill is from the
turret face.
2. Axial (0°) Tool Holders
v Configuration: The
tool output is straight, in line with the mounting shank. These are used for
face drilling or tapping.
v H
Dimension Definition:
Ø
"On a straight style tool the H dimension
is the distance from the flush mounting face to the end face of the
collet."
v Visual
Reference: In the bottom diagram, the red arrow marked H = 55 mm measures
the total length from the turret mounting face to the very tip of the collet
nut.
v Important
Note: Unlike the radial tool where you measure to a centerline,
here you measure to a face. This offset usually needs to be added
to the length of the drill bit itself to get the total tool length offset
(Geometry Offset).
Summary for Setup
v Radial
(Angle): H = Distance to Centerline.
v Axial
(Straight): H = Distance to Face (Nut).
Correctly identifying these
values in the tool catalog or measuring them on the bench is essential for
populating the CNC machine's tool offset page correctly.
🧰
TACO VDI Driven (Live)
Tool Holders
Ø
Axial (0◦ Degrees) Driven (Live)
Tool Holders: Tool axis is parallel to the spindle (ideal for face
drilling).
¨ VDI Turret Axial (0◦ Degrees) Driven (Live) PTI Tool Holders:
¨
VDI Turret Axial (0◦ Degrees)
Driven (Live) PTI Tool Holders:
|
Model [ Description ] Live |
VDI |
PTI |
ØD |
L1 |
L2 |
L3 |
W |
H |
I [Ratio] |
Nmax RPM |
T Nm |
P |
|
VDI-30 Axial PTI‐4 [C4] |
30 |
C4 |
82 |
75 |
55 |
62 |
70 |
41 |
1:1 |
5000 |
40 |
Ø12X6X7 |
|
VDI-30 Axial PTI‐5 [C5] |
30 |
C5 |
98 |
85 |
55 |
62 |
75 |
49 |
1:1 |
4000 |
70 |
Ø13.5X8X7 |
|
VDI-30 Axial PTI‐6 [C6] |
30 |
C6 |
116 |
95 |
55 |
62 |
85 |
58 |
1:1 |
3000 |
100 |
Ø13.5X8X7 |
|
VDI-40 Axial PTI‐4 [C4] |
40 |
C4 |
82 |
75 |
63 |
72 |
70 |
41 |
1:1 |
5000 |
40 |
Ø14X8X6.5 |
|
VDI-40 Axial PTI‐5 [C5] |
40 |
C5 |
98 |
85 |
63 |
72 |
75 |
49 |
1:1 |
4000 |
70 |
Ø14X8X6.5 |
|
VDI-40 Axial PTI‐6 [C6] |
40 |
C6 |
116 |
95 |
63 |
72 |
85 |
58 |
1:1 |
3000 |
100 |
Ø14X8X6.5 |
¨ VDI Turret Axial (0◦ Degrees) Driven (Live) ER Tool Holders:
¨ VDI Turret Axial (0◦ Degrees) Driven (Live) ER Tool Holders: [ Square ]
¨ VDI Turret Axial (0◦ Degrees) Driven (Live) ER Tool Holders: [ DIN 1809 ]
|
Model [ Description ] Live |
Collet Range |
Ød VDI |
A |
B |
C |
E |
F |
|
VDI-30 Axial ER-20 |
3-13 |
30 |
94 |
62 |
50.5 |
30 |
30 |
|
VDI-30 Axial ER-25 |
3-16 |
30 |
98.5 |
62 |
50.5 |
30 |
30 |
|
VDI-30 Axial ER-25 |
3-16 |
30 |
98.5 |
66.5 |
55 |
30 |
30 |
|
VDI-40 Axial ER-32 |
3-20 |
40 |
123 |
72 |
56 |
41 |
41 |
|
Model [ Description ] Live |
G |
H |
I [Ratio] |
Nmax RPM |
S [ER] |
T Nm |
P |
|
VDI-30 Axial ER-20 |
30 |
28 |
1:1 |
6000 |
ER20 |
40 |
Ø12X6X7 |
|
VDI-30 Axial ER-25 |
30 |
28 |
1:1 |
6000 |
ER25 |
40 |
Ø12X6X7 |
|
VDI-30 Axial ER-25 |
30 |
28 |
1:1 |
6000 |
ER25 |
40 |
Ø13.5X8X7 |
|
VDI-40 Axial ER-32 |
43 |
40 |
1:1 |
5000 |
ER32 |
70 |
Ø14X8X6.5 |
¨ VDI Turret Axial (0◦ Degrees) Driven (Live) ER Tool Holders: [ DIN 5480 ]
|
Model [ Description ] Live |
Collet Range |
Ød VDI |
A |
B |
C |
E |
F |
|
VDI-30 Axial ER-20 |
3-13 |
30 |
94 |
67 |
55 |
30 |
30 |
|
VDI-30 Axial ER-25 |
3-16 |
30 |
98.5 |
67 |
55 |
30 |
30 |
|
VDI-40 Axial ER-32 |
3-20 |
40 |
123 |
75 |
63 |
41 |
41 |
|
Model [ Description ] Live |
G |
H |
I [Ratio] |
Nmax RPM |
S [ER] |
T Nm |
P |
|
VDI-30 Axial ER-20 |
30 |
28 |
1:1 |
6000 |
ER20 |
40 |
W16 X 0.8 X 30◦ X 18-9b |
|
VDI-30 Axial ER-25 |
30 |
28 |
1:1 |
6000 |
ER25 |
40 |
W16 X 0.8 X 30◦ X 18-9b |
|
VDI-40 Axial ER-32 |
43 |
40 |
1:1 |
5000 |
ER32 |
70 |
W20 X 0.8 X 30◦ X 24-9b |
¨ VDI Turret Axial (0◦ Degrees) Driven (Live) ER Tool Holders: [ DIN 5482 ]
|
Model [ Description ] Live |
Collet Range |
Ød VDI |
A |
B |
C |
E |
F |
|
VDI-30 Axial ER-20 |
3-13 |
30 |
94 |
55 |
45 |
30 |
30 |
|
VDI-30 Axial ER-25 |
3-16 |
30 |
98.5 |
55 |
45 |
30 |
30 |
|
VDI-40 Axial ER-32 |
3-20 |
40 |
123 |
63 |
53 |
41 |
41 |
|
Model [ Description ] Live |
G |
H |
I [Ratio] |
Nmax RPM |
S [ER] |
T Nm |
P |
|
VDI-30 Axial ER-20 |
30 |
28 |
1:1 |
6000 |
ER20 |
40 |
B15X12-9b |
|
VDI-30 Axial ER-25 |
30 |
28 |
1:1 |
6000 |
ER25 |
40 |
B15X12-9b |
|
VDI-40 Axial ER-32 |
43 |
40 |
1:1 |
5000 |
ER32 |
70 |
B17X14-9b |
¨ VDI Turret Axial (0◦ Degrees) Driven (Live) ER Tool Holders: [ Round ]
¨
VDI Turret Axial (0◦ Degrees)
Driven (Live) ER Tool Holders: [ DIN 1809 ]
¨ VDI Turret Axial (0◦ Degrees) Driven (Live) ER Tool Holders: [ DIN 5480 ]
|
Model [ Description ] Live |
Collet Range |
Ød VDI |
A |
B |
C |
E |
|
VDI-30 Axial ER-25 |
3-16 |
30 |
99.5 |
67 |
55 |
68 |
|
VDI-40 Axial ER-32 |
3-20 |
40 |
120.5 |
75 |
63 |
83 |
|
Model [ Description ] Live |
I [Ratio] |
Nmax RPM |
S [ER] |
T Nm |
P |
|
VDI-30 Axial ER-25 |
1:1 |
6000 |
ER25 |
40 |
W16 X 0.8 X 30◦ X 18-9b |
|
VDI-40 Axial ER-32 |
1:1 |
5000 |
ER32 |
70 |
W20 X 0.8 X 30◦ X 24-9b |
¨ VDI Turret Axial (0◦ Degrees) Driven (Live) ER Tool Holders: [ DIN 5482 ]
|
Model [ Description ] Live |
Collet Range |
Ød VDI |
A |
B |
C |
E |
|
VDI-30 Axial ER-20 |
3-13 |
30 |
94 |
55 |
45 |
68 |
|
VDI-30 Axial ER-25 |
3-16 |
30 |
98.5 |
55 |
45 |
68 |
|
VDI-40 Axial ER-32 |
3-20 |
40 |
121 |
63 |
53 |
83 |
|
Model [ Description ] Live |
I [Ratio] |
Nmax RPM |
S [ER] |
T Nm |
P |
|
VDI-30 Axial ER-20 |
1:1 |
6000 |
ER20 |
40 |
B15X12-9b |
|
VDI-30 Axial ER-25 |
1:1 |
6000 |
ER25 |
40 |
B15X12-9b |
|
VDI-40 Axial ER-32 |
1:1 |
5000 |
ER32 |
70 |
B17X14-9b |
Ø
Radial (90◦ Degrees) Driven (Live)
Tool Holders: Tool axis is perpendicular to the spindle (used for side
milling or drilling).
¨ VDI Turret Radial (90◦ Degrees) Driven (Live) PTI Tool Holders:
¨ VDI Turret Radial (90◦ Degrees) Driven (Live) PTI Tool Holders:
|
Model [ Description ] Live |
VDI |
PTI |
L1 |
L2 |
L3 |
L4 |
L5 |
W |
H |
I [Ratio] |
Nmax RPM |
T Nm |
P |
|
VDI-30 Radial PTI‐4 [C4] |
30 |
C4 |
51 |
75 |
75 |
55 |
62 |
30 |
38 |
1:1 |
5000 |
40 |
Ø12X6X7 |
|
VDI-30 Radial PTI‐5 [C5] |
30 |
C5 |
53 |
85 |
82 |
55 |
62 |
40 |
41 |
1:1 |
4000 |
70 |
Ø13.5X8X7 |
|
VDI-30 Radial PTI‐6 [C6] |
30 |
C6 |
55 |
95 |
92 |
55 |
62 |
50 |
55 |
1:1 |
3000 |
100 |
Ø13.5X8X7 |
|
VDI-40 Radial PTI‐4 [C4] |
40 |
C4 |
51 |
75 |
75 |
63 |
72 |
30 |
38 |
1:1 |
5000 |
40 |
Ø14X8X6.5 |
|
VDI-40 Radial PTI‐5 [C5] |
40 |
C5 |
53 |
85 |
82 |
63 |
72 |
40 |
41 |
1:1 |
4000 |
70 |
Ø14X8X6.5 |
|
VDI-40 Radial PTI‐6 [C6] |
40 |
C6 |
55 |
95 |
92 |
63 |
72 |
50 |
55 |
1:1 |
3000 |
100 |
Ø14X8X6.5 |
¨ VDI Turret Radial (90◦ Degrees) Driven (Live) ER Tool Holders:
¨
VDI Turret Radial (90◦ Degrees)
Driven (Live) ER Tool Holders:
¨ VDI Turret Radial (90◦ Degrees) Driven (Live) ER Tool Holders: [DIN 1809]
|
Model [ Description ] Live |
Collet Range |
Ød VDI |
A |
B |
C |
E |
F |
G |
H |
|
VDI-30 Radial ER-25 |
3-16 |
30 |
84 |
62 |
50.5 |
63 |
96.5 |
49 |
33 |
|
VDI-30 Radial ER-25 |
3-16 |
30 |
84 |
66.5 |
55 |
63 |
96.5 |
49 |
33 |
|
VDI-40 Radial ER-32 |
3-20 |
40 |
91 |
72 |
56 |
80 |
106.5 |
43 |
43 |
|
Model [ Description ] Live |
J |
K |
ØL |
I [Ratio] |
Nmax RPM |
S [ER] |
T Nm |
P |
|
VDI-30 Radial ER-25 |
119 |
40 |
8 |
1:1 |
6000 |
ER25 |
40 |
Ø12X6X7 |
|
VDI-30 Radial ER-25 |
119 |
40 |
8 |
1:1 |
6000 |
ER25 |
40 |
Ø13.5X8X7 |
|
VDI-40 Radial ER-32 |
131 |
63 |
10 |
1:1 |
5000 |
ER32 |
70 |
Ø14X8X6.5 |
Note: The
above table data represents the Right-hand version. A Left-hand
version is also available.
¨ VDI Turret Radial (90◦ Degrees) Driven (Live) ER Tool Holders: [DIN 5480]
|
Model [ Description ] Live |
Range / Capacity |
Ød VDI |
A |
B |
C |
E |
F |
G |
H |
|
VDI-30 Radial ER-25 |
M3-M16 |
30 |
89 |
67 |
55 |
63 |
96.5 |
49 |
33 |
|
VDI-40 Radial ER-32 |
M3-M20 |
40 |
98 |
75 |
63 |
80 |
108.5 |
43 |
43 |
|
Model [ Description ] Live |
J |
K |
ØL |
I [Ratio] |
Nmax RPM |
S [ER] |
T Nm |
P |
|
VDI-30 Radial ER-25 |
124 |
48 |
8 |
1:1 |
6000 |
ER25 |
40 |
W16 X 0.8 X 30◦ X 18-9b |
|
VDI-40 Radial ER-32 |
138 |
56 |
10 |
1:1 |
5000 |
ER32 |
70 |
W20 X 0.8 X 30◦ X 24-9b |
Note: The
above table data represents the Right-hand version. A Left-hand
version is also available.
¨ VDI Turret Radial (90◦ Degrees) Driven (Live) ER Tool Holders: [DIN 5482]
|
Model [ Description ] Live |
Collet Range |
Ød VDI |
A |
B |
C |
E |
F |
G |
H |
|
VDI-30 Radial ER-25 |
3-16 |
30 |
89 |
55 |
45 |
63 |
96.5 |
49 |
33 |
|
VDI-40 Radial ER-32 |
3-20 |
40 |
98 |
63 |
53 |
80 |
108.5 |
43 |
43 |
|
Model [ Description ] Live |
J |
K |
ØL |
I [Ratio] |
Nmax RPM |
S [ER] |
T Nm |
P |
|
VDI-30 Radial ER-25 |
124 |
40 |
8 |
1:1 |
6000 |
ER25 |
40 |
B15X12-9b |
|
VDI-40 Radial ER-32 |
138 |
63 |
10 |
1:1 |
5000 |
ER32 |
70 |
B17X14-9b |
Note: The above table data represents the Right-hand version. A Left-hand version is also available.
“Live Tooling is provided upon request at a specified ratio.”
|
RATIO
EXAMPLE |
in RPM |
out RPM |
|
1:1 |
6000 |
6000 |
|
1:2 |
6000 |
12000 |
|
1:3 |
5000 |
15000 |
|
2:1 |
6000 |
3000 |
⚠️ Important Note (Rewritten for Clarity):
Before placing an order, please select the desired type of VDI Drive End for the VDI Driven Tool Holder. > 💡 Prices may vary depending on the selected drive end type.
📌 Important
Ordering Note – Live Tooling
v Availability: Live Tooling is supplied only
upon request.
v Specification: Orders must specify the required
ratio along with all relevant technical parameters.
v Lead Time: Additional processing time may
be required; please confirm delivery schedules in advance.
v Customization: Any variation from standard
ratios must receive prior approval before order confirmation.
v Responsibility: Incomplete or unclear order
details may result in delays.
v Production: Manufacturing will commence only
after receipt of advance payment and final drawing approval.
v Order Requirement: Customers must provide Turret
technical details (Drive/Coupling specifications) to finalize product
design.


















