Global Product Catalogue v26.1 - Catalog - Page 14
Coatings
Ti-NAMITE and Di-NAMITE Tool Coatings are
specifically engineered for KSPT solid carbide
rotary tools. The coating lineup includes proprietary
processes that result in optimized tool life and
increased speed and feed rates in a variety of
applications.
Coefficient
of Friction
(Fretting)
Thermal
Stability
General Information
2200
0.40–0.65
600°C /
1112°F
A general purpose coating with
good adhesion and abrasion
resistant properties. Suitable for
a wide variety of materials.
1100°C /
2010°F
Excellent thermal and chemical
resistance allows for dry cutting
and improvements in performance
of carbide. The coating has a high
hardness giving great protection
against abrasive wear and erosion.
0.10–0.20
850°C /
1562°F
This ceramic based coating ensures a
smooth surface and a low affinity to
cold welding or edge build up, which
makes it optimal for aluminum, copper,
and other non-ferrous applications. It
has high toughness and high hardness.
0.30–0.45
400°C /
752°F
A very wear resistant coating with
high toughness and shock resistance.
Good in interrupted cuts found
in applications like milling.
0.45
1150°C /
2100°F
The structural design of
Ti-Namite-X is adapted to meet a diverse
range of applications; everything from
high- and low-alloy steels to hardened
materials (up to 65 HRC core hardness).
Ti-Namite-X is suitable for operations
which require high cutting speeds,
high temperatures at the cutting edge,
and high metal removal rates.
0.15–0.20
800°C /
1470°F
This is the hardest coating available
with the best abrasion resistance.
Diamond coating is suitable for
machining highly abrasive, non-ferrous
materials such as CFRP and graphite.
1150°C /
2100°F
Features include high wear resistance,
reduced friction, and excellent
prevention of edge build up. This coating
provides superior material removal
rates and tool life when used in high
performance operations with difficult
to machine materials like titanium.
1100°C /
2010°F
This coating demonstrates a superior
combination of hardness and adhesion
in hard machining of molds and dies and
machining high-alloy stainless steels for
high temperature applications such as
turbines. The smooth surface ensures
optimum surface quality and decreases
the temperature in the cutting zone by
reducing friction.
1150°C /
2100°F
The nano-layers of this coating provide
high hardness for exceptional wear
resistance and high oxidation resistance
that allows for operation at high
temperatures. The layered structure also
gives the coating the toughness required
to resist chipping. Megacoat Nano is
particularly effective in high efficiency
machining applications.
Identifying
Color
Ti-NAMITE
Titanium
Nitride
(TiN)
gold
Ti-NAMITE-A
Aluminum
Titanium
Nitride
(AlTiN)
Ti-NAMITE-B
Titanium
DiBoride
(TiB2)
light
grey-silver
Monolayer 1–2 microns
4000
Ti-NAMITE-C
Titanium
Carbonitride
(TiCN)
pink-red
Multilayer 1–5 microns
3000
Ti-NAMITE-X
Proprietary
(TX)
Di-NAMITE
Crystalline
Diamond
(Diamond)
Ti-NAMITE-M
Ti-NAMITE-H
MEGACOAT NANO
Proprietary
(TM)
Proprietary
(TH)
Proprietary
(MN)
dark
grey
black
black
copper
copper
Purple
iridescent
Layer
Structure
Hardness
(HV)
Coating
Thickness
Multilayer 1–5 microns
Nano
structure
1–5 microns
Nano
1–5 microns
Composite
Monolayer
6–20
microns
Nano
1–5 microns
Composite
Nano
1–5 microns
Composite
Nano
1-5 microns
Composite
3700
3600
>8000
3600
3800
3600
0.30
0.45
0.30
0.45
Other coatings available upon request.
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