coating guide 2010 - ev14_platit

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Short Catalog & Coating Guide 2010 th 14 Edition

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Page 1: Coating Guide 2010 - Ev14_PLATIT

Short Catalog &

Coating Guide 2010th

14 Edition

Page 2: Coating Guide 2010 - Ev14_PLATIT

MoDeC : Modular Dedicated Coating®

®MoDeC

2

3

PL1001 PL2001

300p

PL70

80p

PLATIT Machines with Rotating Cathodes

PLATIT Machines with Planar Cathodes

Page 3: Coating Guide 2010 - Ev14_PLATIT

80PLATIT

5

General Information

• Compact hardcoating unit®• Based on PLATIT LARC technology

(2 LAteral Rotating Cathodes)

Hard Coatings

• Standard coatings: TiN, TiAlN, AlTiN, nACo• Optional and Nanocomposite Coatings

®

Hardware

• Coatable volume: Ø300 x H400 mm®

• Virtual Shutter

p80+ Additional Hardware®

• Tube Shutters• Pulsed BIAS• Dust filter for heaters

General Information

Hardware

Hard Coatings

• 1-linear-cathode compact hardcoating unit• Based on PLATIT cathodic ARC-technology

with linear flat target• The easy-to-start coating unit

80+• Fully upgradeable to p

• Usable plasma volume: Ø300 x H400 mm

• Standard coatings: TiN, TiAlN, TiCN-MP• Optional coatings as monolayers only

PLATIT PL70Upgradeable to 80 80+or

4

Page 4: Coating Guide 2010 - Ev14_PLATIT

7

6

PLATITGeneral Information

Use in Production

Comparison to p80

• New generation of compact hard coating unit®

• Based on PLATIT revolutionary LARC technology(LAteral Rotating Cathodes)

Hardware

• Usable plasma volume: Ø355 x H440 mm®• 2 LARC (tubular) cathodes

® ®• Virtual Shutter and Tube Shutters

• New: >50% higher, optimized coatable volume• at practically same foot print and• at same process (cycle) time

• New: Tube Shutters protect both cathodes from contamination

• New: Dust filter for heaters

®

• New caroussel drive with high loadability (>150kg)• New: Prepared for easy upgrade to

2DLC - and OXI-units and -coatings• Extremly homogenous thickness distribution• Target exchange compatibility for all machines

Hard Coatings

• Standard: TiN, TiAlN, AlTiN, nACo• Optional: TiCN-MP, TiCN, cVIc , TiAlCN, GRADVIc ,

CrN, CROMVIc , CrTiN, CROMTIVIc , Ti N, ZrN,2

AlCrN, AlTiCrN, nACo , F -VIc , nACRo , nACVIc• Monolayers, multilayers, nanogradients, nanolayers,

nanocomposites, and their combinations

®

® ®

® ®

® ® ® ®ǐ

is the result of optimization of the vacuum chamber and coating volume:Costs / batch are LOW like with small units – Costs / tool are LOW like with big units

is thereforethe basis coating unit with sufficiant capacity for In-House-Coating of small and medium size companies,the extension unit for coating centers to be able to offer short delivery time even for small tool quantitieswith highest flexibility, variety of different coatings

•••

Page 5: Coating Guide 2010 - Ev14_PLATIT

A: 313 Configuration®3x LARC : LAteral Rotating Cathodes

Target size: Ø96 x 510 mm ®1x CERC : CEntral Rotating Cathode

Target size: Ø110 x 510 mm

Usable plasma volume: Ø485-Ø185 x H 440 mm

3 cathodes in action at the same time:Free programmable switching between cathode 2 and 4; between operation mode 312 and operation mode 303,even during deposition process.

B: 303 Configuration®

3x LARC : LAteral Rotating Cathodes®No CERC : CEntral Rotating Cathode

Usable plasma volume: Ø485 x H 440 mm

300 Configurations

9

1 12 2

3 3

4 4

pp

• Standard coatings: TiN, TiAlN, AlTiN, nACo®3• Optional: Nanocomposite and TripleCoatings

®

Coatings

300PLATIT General Information

• Compact hardcoating unit® ®• Based on PLATIT LARC and CERC technologies

(LAteral Rotating Cathodes andCEntral Rotating Cathodes)

• Reconfigurable by the user into different cathode setups:

8

A: p313 3 LARC cathodes and 1 CERC cathode® ®

B: p303 3 LARC cathodes®

Page 6: Coating Guide 2010 - Ev14_PLATIT

General Information

• High capacity hardcoating unit• Based on PLATIT cathodic ARC technology

with linear flat targets

Hardware

• Usable plasma volume: ø700 x 700 mm• 4 PLATIT cathodes with quick-exchange system

Hard Coatings

• Standard coatings: TiN, TiAlN, TiCN-MP• Monolayer, multilayer, and nanolayer

PLATIT PL1001 COMPACT

10

Hard Coatings

• Standard coatings: TiN, TiAlN, TiCN-MP• Monolayer, multilayer, and nanolayer

PLATIT PL2001 COMPACT

General Information

• Extremely high capacity hardcoating unitfor large tools and objects

• Based on PLATIT cathodic ARC technologywith linear flat targets

Hardware

• Usable plasma volume: ø1000 x 700 mm• 4 PLATIT cathodes with quick-exchange system fully

compatible with the PL1001 COMPACT cathodes

11

Page 7: Coating Guide 2010 - Ev14_PLATIT

12

13

DLC- and OXI-Machines

p300+DLC

+OXI

PL1001+DLC

OXI

2DLC

DLCOXI

DLC-Machines OXI-Machines

VIRTUAL SHUTTER®

TUBE SHUTTER®

Pulsed BIAS supply 350 kHz

Special heaters with dust filter

to clean the targets to the back before depostion

to protect the targets against contamination during the process

to enable deposition of non‐conductive layers to avoid ion overload, over-etching

to avoid contamination of the substrates by dust released from the heaters

Combined PVD /PECVD process

Additional gas channel regulated by mass flow controller

for acetylene for O /H mixture2 2

Special gas line for Si containing gas Pulsed ARC supplies optional

PVD process at increased temperature

Page 8: Coating Guide 2010 - Ev14_PLATIT

PL1

001

Only standard holders were used for capacity calculations. E.g. sphere holders can increase capacity up to factor 3.15

Loading Capacities

14

80P

L70

/ p

300

p

hobs on satellitestools in revolver

tools in single holders driven by gearboxes

tools in single holder driven by kickers

inserts with holes fixed on rods

End mills 6 mm 57 mm 7 4 9 4 36 100810 mm 70 mm 7 4 18 1 18 50420 mm 100 mm 7 3 8 1 8 16832 mm 133 mm 7 2 8 1 8 112

Drills 3 mm 46 mm 7 5 9 12 108 37806.8 mm 74 mm 7 4 9 4 36 1008

10.2 mm 102 mm 7 3 18 1 18 37816 mm 115 mm 7 2 18 1 18 252

Inserts 20 mm 6 mm 7 1 9 30 270 1890

Hobs 80 mm 180 mm 7 2 1 1 1 14End mills 6 mm 57 mm 4 6 23 4 92 2208

10 mm 70 mm 4 6 36 1 36 86420 mm 100 mm 4 4 23 1 23 36832 mm 133 mm 4 3 15 1 15 180

Drills 3 mm 46 mm 4 7 23 12 276 77286.8 mm 74 mm 4 6 23 4 92 2208

10.2 mm 102 mm 4 4 36 1 36 57616.0 mm 115 mm 4 4 36 1 36 576

Inserts 20 mm 6 mm 4 2 22 24 528 4224

Hobs 80 mm 180 mm 4 3 3 1 3 36

Tool Diameter Tool Length Satellites Discs / Satellite Holders / Disc Tools / Holder Tools / Disc Tools / BatchEnd mills 6 mm 57 mm 3 4 9 4 36 432

10 mm 70 mm 3 4 18 1 18 21620 mm 100 mm 3 3 8 1 8 7232 mm 133 mm 1 2 22 1 22 44

Drills 3 mm 46 mm 3 5 9 12 108 16206.8 mm 74 mm 3 3 9 4 36 324

10.2 mm 102 mm 3 3 18 1 18 16216.0 mm 115 mm 3 2 18 1 18 108

Inserts 20 mm 6 mm 3 1 9 28 252 756

Hobs 80 mm 180 mm 3 2 1 1 1 6

End mills 6 mm 57 mm 4 4 9 4 36 57610 mm 70 mm 4 4 18 1 18 28820 mm 100 mm 4 3 8 1 8 9632 mm 133 mm 1 2 26 1 26 52

Drills 3 mm 46 mm 4 5 9 12 108 21606.8 mm 74 mm 4 4 9 4 36 576

10.2 mm 102 mm 4 3 18 1 18 21616.0 mm 115 mm 4 2 18 1 18 144

Inserts 20 mm 6 mm 4 1 9 30 270 1080Hobs 80 mm 180 mm 4 2 1 1 1 8

Page 9: Coating Guide 2010 - Ev14_PLATIT

Special box to allow quick cooling of work pieces in carousel through circulation of air.

For correct vertical holding and stocking of LARC and CERC cathodes.

Fork lift for easy transportation of loaded carousels and cathodes to and from the coating unit. Compat-

80+ 111 300ible with PL70, p, p, p.

FL380 Fork Lift CB380 Cooling BoxCT380 Cathode Table

Handling Devices

single holder

In the gearbox, the tools turn continually around their own axis

17

Substrate Holders

16

Rotary Table with Satellites Holders

discs

satellite

multiple holder("sphere")

In the sphere holders the tools are turned by internal kickers stepwise. Only similar tools should be coated inside of one satellite.

In the revolver holders the tools do not turn around the own axes.

Page 10: Coating Guide 2010 - Ev14_PLATIT

Cleaning Units

19

Industrial vacuum units for fully automatic cleaning of:• cutting tools, molds and dies, machine components• even for difficult to clean parts with cavitationsUnits include:• reverse osmosis, ultrasonic treatment• demi water and detergent (alkaline) tank• spraying, fluting, heating, rinsingSpecial PLATIT program for steel and carbide tools.Cycle time (cleaning, blow off, drying): ~45 min

Industrial spray cleaning for cutting toolshamber dimensions WxDxH: 500 x 350 x 500 mmequires additional equipment:

ultrasonic bath, reverse osmosis, oilfree compressorSpecial PLATIT program for steel and carbide toolsCycle time (cleaning, blow off, drying): 90min

• c• r

~

IR 6002 V80, V300, V1000

Max. dimensions of substrates to be cleaned: WxDxH [mm]:

V80 V300 V1000

350 x 370 x 500 500 x 520 x 500 700 x 700 x 700

Edge Treatment Methods

18

Criteria / Features Magnet FinishingWater BeamMicroBlastingWet

Micro BlastingDry

Drag Grinding(Polishing)

BrushingHoning by Handwith diamond file

Quality goodgoodgoodmedium. . . good. . . goodbest

Flexibility highmediumhighmedium. . . mediumhighvery high

Productivity medium. . . . . very highhighmedium. . . medium. . . mediumlow

Price high. . . . . very highmediumlow. . . medium. . . highlabour cost

Special features demagnetizing necessary

only for large scale production, corrosion protection needed

no residual mat. after blastinghigh air demand

residual materials on the surface

droplet removal difficult for small diameters

commonly used for end mills, difficult for taps

typical forsmall regrinders

Flute polishing possible limited in depth yes yesyes. . . yes. . . yeswith Scotch Brite

Droplet removal possible yes yes yesyes. . . yes. . . yeswith Scotch Brite

Page 11: Coating Guide 2010 - Ev14_PLATIT

Image Processing System

•••••

microscopical analysis of test plates and coated toolsmeasurement and database for quality controlcalotest on plates and real toolsdroplets evaluation with surface analysisadhesion evaluation by Rockwell test

( )PLATIT Quality Control System PQCS

20

Stripping Units

21

Batch no.: XXXCoating: AlTiN-GDate: 7/27/2005D-ball [mm]: 30

D1 [µm]: 475.00D2 [µm]: 179.75

Thickness [µm]: 1.61100 µm

notacceptable

HF1

HF2

HF3

HF4

HF5

HF6

Available Stripping Processes

•••••

Stripping Cr based coatings from HSSStripping Cr based coatings from HMStripping Ti, Al based coatings from HSSStripping Ti, Al based coatings from HMStripping CrTi based coatings from HSS

ST-40

Changeable decoating modules:•••••

ST-40 HM: Decoating Ti based coatings from carbideST-40 HM-C: Decoating Cr based coatings from carbideST-40 HSS: Decoating Ti, Cr based coatings from HSSST-40 R: Rinsing moduleST-40 P: Corrosion protection module

AlTiN on HM

Stripped AlTiN from HM

Page 12: Coating Guide 2010 - Ev14_PLATIT

Turnkey Coating Systems

Stripping

PL1001

Handling

Coating

Pre-Treatment

Quality ControlCleaning

p300

p80The new generation of compact units

Page 13: Coating Guide 2010 - Ev14_PLATIT

Nanolayer Nanocomposite ®3TripleCoating

25

By depositing different kinds of materials, the components (like Ti, Cr, Al, and Si) are not mixed, and 2 phases are created. The nanocrystalline TiAlN- or AlCrN-grains become embedded in an amorphous Si N -Matrix. This nanocomposite structure 3 4

significantly improves physical characteristics, they are not depending on the batch load.

Nanolayer is the conventional structure for the so called Nanocoatings. It is a finer version of multilayers with a period of < 20 nm. Its hardness depends on the period. The period depends on the rotation speed of the substrates. Therefore the coating hardness can be different on substrates with different sizes deposited in a mixed batch.

TripleCoatings are deposited with 3 sections freely programmed in one batch:• The adhesion layer is generated with TiN or CrN.• The core is deposited with the nowadays most

used AlTiN.• The nanocomposite (e.g. AlTiN/SiN)

generates the wear resistant skin with extrem high warm hardness.

Monoblockor gradientcore layer

Nanocompositetop layer

Adhesion layer

CT=2.72µm5 nm

Monoblock GradientMultilayerM

icro

stru

ctur

esN

anos

truc

ture

s

24

The monoblock structure without adhesion layer can be produced by the fastest, most economical process. All targets are the same and run during the whole deposition process.

Especially at high aluminum content the monoblock coating should be started with adhesion layer (e.g. TiN or CrN).

The multilayer structure has higher toughness at lower hardness than a comparable monoblock coating. The "sandwich" structure absorbs the cracks by the sublayers. Therefore the multilayer is usually preferred for high dynamical load, e.g. for roughing.

The gradient structure also starts with adhesion layer, with components like TiN and CrN, generating a tough core for the coating. The ratio of hard components (e.g. cubic AlN) will be continuously increased obtaining the highest hardness on the top of the coating.

CT=1.84µm CT=1.92µm CT=2.52µm

Coating thickness:Layer 1: 0.89 µmLayer 2: 0.22 µmLayer 3: 0.17 µmLayer 4: 0.23 µmLayer 5: 0.18 µmLayer 6: 0.25 µmLayer 7: 0.23 µmLayer 8: 0.35 µm

CT=2.5µm

Page 14: Coating Guide 2010 - Ev14_PLATIT

Hardness Increase through Nanocomposites

TiAlN+Si N3 4

TiAlN

hardness

structure

30

38

50

14

24

30

40

21

uncoatedcarbide

TiN TiAlNAlTiN

®nACo

®nACRo

0

10

20

30

40

50

60hardness [GPa]

The beach comparison illustrates the hardness increase made possible by using a nanocomposite structure. Usually, the foot sinks into dry sand. In wet sand, the foot does not sink in or not as far, because the space between sand-corns is filled with water. The surface has a higher resistance, so it is harder.

AlTiN

Si N3 4

27

Comparison of Coating Structures

26

By deposition very different kinds of materials, the components (like Ti, Cr, Al in the first group, and Si in the other) are not mixed completely, and 2 phases are created. The nanocrystalline TiAlN- or AlCrN-grains become embedded in the amorphous Si N -matrix and a nanocomposite 3 4

structure is created.

Silicon increases the thoughness and decreases the internal residual stress of the coating. The inreasing of the hardness is generated by the structure only, the SiN matrix enwraps the hard grains and avoids growing of their size.

ConventionalCoating Structure

Transition toNanocomposite

Nanocomposite Structurewith high Si

Addition of Silicon

5 nm

5 nm

5 nm

Page 15: Coating Guide 2010 - Ev14_PLATIT

SuperTiN AlTiN ®µAlTiN

Opt

iona

l Coa

ting

s

29

Special multilayer TiN-coatingto increase performance:• at sawing• at tapping• injection molding

High-performance coating:• high heat resistance• for dry, high speed machining• hard machining

AlTiN-T (MB) Ti/Al ≥ 40/60%AlTiN-C (MB) Ti/Al ≥ 33/67%AlTiN-ML Ti/Al ≥ 40/60%AlTiN-G (gradient) Ti/Al ≥ 40/60%

Special high-performance PLATIT coating:Like the AlTiN coatings,but with polished surfaces for extremly good chip evacuation.

TiN TiCN-MP®TiAlN (UniversAl )B

asic

Coa

ting

s

28

PLATIT MultiPurpose gradient coating for:• interrupted cutting• milling and tapping• forming, stamping and punching• higher edge stability than at TiCN-grey

The general-purpose coating for:• cutting• forming• injection molding• tribological applications

(for machine components)

Universal high-performance coating for cutting (drilling, milling, reaming, turning).Monolayer (MB): for stable finishing and roughingMultilayer (ML): for interrupted cutsTiAlN-MB Ti/Al ~ 50/50%TiAlN-F (ML) Ti/Al ~ 50/50%TiAlN-G (G: gradient) Ti/Al > 50/50%

µ

Page 16: Coating Guide 2010 - Ev14_PLATIT

cVIc® 2®|cVIc ® 2®GRADVIc |GRADVIc

® 2®CROMVIc |CROMVIc

Opt

iona

l Coa

ting

s

CBC (DLC)CBC (DLC)CBC (DLC)Diamond Like Coating - hard lubricantCarbon-Based Coating - hard lubricantCarbon-Based Coating - hard lubricant

31

PLATIT double coating with nanogradient structure:• for cutting sticky materials to avoid

built up edges• for forming application with optimum

release• for tapping

PLATIT double coating with nanogradient structure:• for milling, tapping, punching and stamping• to avoid built up edges• for machining high alloyed materials as

nickel alloys, Inconel, superalloys etc.• for forming application for optimum release

PLATIT double coating with nanogradient structure:• to avoid built up edges• for machining aluminium and titanium alloys• for forming application with optimum

release

TiCN TiAlCN CrNO

ptio

nal C

oati

ngs

30

Conventional carbonitride coating (grey):• for milling and tapping• for stamping, punching and forming

PLATIT gradient coating for universal use:• with high toughness and hardness• at very low friction coefficient• for milling and tapping• for stamping and punching

The standard coating for non-cuttingapplications:• for molds and dies• for machine parts• low deposition temperature possible

(above 220 °C)

Page 17: Coating Guide 2010 - Ev14_PLATIT

® 2®CROMTIVIc |CROMTIVIc

® 2®ALLViC |ALLViC

CBC (DLC) CBC (DLC)Carbon-Based Coating - hard lubricant Carbon-Based Coating - hard lubricant

Ti N2

ZrN

33

PLATIT multilayer coating for universal use:• Same usage as CrTiNplus• prevents built-up edges• easy release of forming tools• wear and corrosion protection on machine

parts and components

Ti-free monolayer coatingEffectively reduces the built up edges when machining aluminum and titanium alloys.

Universal PLATIT All-in-One coating:Very low friction coefficient for:• minimal lubrication• dry processing

CrTiN AlCrN AlTiCrN (All in One)

(EMO 2003)

32

PLATIT multilayer coating for universal use:• improved economy by using Ti• outstanding chemical resistance and

toughness due to fine multilayer structure• for molds, dies and machine parts• for HSS cutting tools in high alloyed materials• lower deposition temperature possible

Advantages: • higher heat resistance than AlTiN, • achieves a better adhesion and higher

coating thickness than AlTiNDisadvantages: • softer than AlTiN at similar Al content• Cr targets are very expensive• hard to decoat from carbides

Titanium-rich PLATIT coating for:• medical tools and implants

PLATIT All-in-One coating for universal useDeposition also possible with conventional planar technology.Decreases the disadvantages of AlCrN:• higher hardness• more economical production• easier to decoat

Opt

iona

l Coa

ting

sO

ptio

nal C

oati

ngs

Page 18: Coating Guide 2010 - Ev14_PLATIT

Nan

ocom

posi

te C

oati

ngs

Nan

ocom

posi

te C

oati

ngs

nATCRo®

® 2®nATVIc nATVIc|

®nACRo®nACo

34

Nanocomposite PLATIT coating®nATCRo = (nc-AlTiCrN/a-Si N )3 4

• All-in-One - coating for universal use• the successor of AlCrN-based coatings• higher hardness• high abrasive wear resistance

Nanocomposite PLATIT coating®nACRo = (nc-AlCrN/a-Si N )3 4

• extremely high scratch resistance• extremely high heat resistance• high coating thickness possible• eliminates important disadvantages

of AlCrN coatings• for "tough" diffcult to cut materials

Nanocomposite PLATIT coating®nACo = (nc-AlTiN)/(a-Si N ):3 4

• extremely high nanohardness• extremely high heat resistance• for hard machining• for high performance and also for

normal machining conditions• also available with decorative blue top layer

® 2®nACVIc nACVIc|® 2®F -VIc |F -VIcǐ ǐ

CBC (DLC)CBC (DLC) CBC (DLC)Carbon-Based Coating - hard lubricantCarbon-Based Coating - hard lubricant Carbon-Based Coating - hard lubricant

35

Double Nanocomposite PLATIT coating:• high hardness, heat and scratch resistance• high toughness• extremely low friction coefficient• dedicated coating for machine parts,

especially in racing engines

Double Nanocomposite PLATIT coating with nanogradient structure:• high hardness, heat and scratch resistance• high coating thickness possible• outstanding for HSS cutting in high alloyed

materials and in titanium• for machine parts of high strength materials

Double Nanocomposite PLATIT coating with nanogradient structure:• high hardness, heat and scratch resistance• for forming of highly hard materials, even in

the most difficult conditions; e.g. no or fewlubrication

®nACRo

®nACo

Page 19: Coating Guide 2010 - Ev14_PLATIT

36

37

® 3Tr

iple

Coa

ting

s® 3

Trip

leC

oati

ngs

nATCRo ®3

TiXCo ®3

®3nACRo

®3AlXN

®3nACo

®nACoX

Triple-PLATIT coating:®3nATCRo = CrTiN + AlTiN + AlTiCrN/SiN

• for all cutting and forming tools• tough core• higher hardness• high abrasive wear resistance• preferably for drilling using HSS tools

Stoichiometry:TiN + nACo + TiXN/SiNPossibilities for the component X:X : Boron, X: Chromium, X: confidential

Dedicated application field:Cutting of very hard materials (> 60HRC)

Triple-PLATIT coating:®3nACRo = CrN + AlTiCrN + AlCrN/SiN

• high abrasive wear and heat resistance• top layer with high hardness and toughness• high performance at wider applicability• preferably for very tough operations; e.g. friction welding, die casting

Stoichiometry:CrN + fine Multilayer XN + AlTiNPossibilities for the component X:X : Al/Cr, X: confidential

Dedicated application field:Micro hobbing

Triple PLATIT coating:®3nACo = TiN + AlTiN + TiAlN/SiN

• tough core with high wear and heat resistance• top layer with extremely high nanohardness• for production with low deviation• high performance at wider applicability• preferably for drilling and punching

Stoichiometry:TiN + nACo + AlCrN + AlCrON + XPossibilities for the component X:X : TiN, X: CrTiN, X: AlTiN, X: confidential

Dedicated application field:Dry turning using indexable inserts

Page 20: Coating Guide 2010 - Ev14_PLATIT

38

39

Layer Architecture of PLATIT's Oxynitride Coatings ®Features of nACoX

• Ratio nitrogen to oxygen:N/O: 50/50% – 80/20%

• Typical coating thicknesson turning inserts: 7 - 18 µm

• Typical total hardness: 30 GPa• Typical Young's modulus: ~400 GPa

covering nitride; AlCrN, TiAlN, optionaloxide or oxynitride; (Al,Cr) O - (Al,Cr)(O,N)2 3

Nitride; AlCrN, TiAlN

Nanocomposite; nACo, nACRo

adhesion layer

tungsten carbide

AlCrONAlCrNnACo = TiAlN / SiNTiN = Adhesion layer

Comparison of the most important features of PLATIT's DLC-coatings

Name

Availability

Most common coatings

Coating process

Composition

Heat resistance

Internal stress

Possible thickness

Electrical conductivity

Hardness

Roughness

Friction coefficient to steel

Wear resistance

Main application goal

st1 generation

CBC (DLC)

as top coating only

Basis coating + CBC

CROMVIc cVic F -VIc® ® ® ®, CROMTIVIc , , ǐ

PVD

a-C:H:Me - Metal doped DLC

< 400°C

high

< 1 µm

good

20 GPa

Ra~0.1µm - Rz~0.6 µm

µ~0.15

Wear through after a short time

Improvement of tool's run-in behavior

nd2 generation2CBC 2 (DLC )

recommended as top coating2Basis coating + CBC

2CROMVIc cVIc F -VIc2 2 2, CROMTIVIc , , ® ® ® ®ǐ

PVD+PECVD

a-C:H:Si - Silicon doped metal free DLC

higher due to Si

lower due to Si

up to 5 µm

none

25 GPa

Ra~0.03µm - Rz~0.2µm

µ~0.1

Wear through after a long time

Reducing friction and wear for long run

2CROMVIc

®

®nACoX

300 nm CrN basedadhesion layer;PVD at <220°C

2 µm Si & C H2 2

based multilayer;PECVD at <200°C

3 µm C H based2 2

gradient layer(PECVD) at<150°C

Page 21: Coating Guide 2010 - Ev14_PLATIT

40

41

Application Field of Coatings

Triple 3Coating ®

Cutting Forming Machine Components

1* TiN universal use molds and dies universal use, also for decorative purposes

2 TiAlN-MB; Ti/Al=50/50% drilling, universal use, increased performance for HSS-tools

3* TiAlN-F (ML); Ti/Al>50/50% drilling and universal use, also for weak machines

4 TiAlN-G; Ti/Al > 50/50% universal use, for standard machines®5* TiCN-MP milling, tapping, cutting with HSS and coolant, for light metals molds and dies, punching, stamping universal use at low temperature

6 SuperTiN like TiCN-MP but covered by TiN molds and dies, punching

7 AlTiN-T; Ti/Al ≥ 40/60% universal use for stable machines

8 AlTiN-C; Ti/Al ≥ 33/67% universal use for stable machines, for hard machining

9 AlTiN-ML; Ti/Al ≥ 40/60% drilling and universal use, also for weak machines

10 AlTiN-G; Ti/Al ≥ 40/60% milling, hobbing, high performance machining, also dry®11 µAlTiN ; Ti/Al ≥ 40/60% reaming, high precision machining, also dry for long tools

2CBC|CBC (DLC) as top coating only

12 TiCN-grey tapping, milling for HSS and HM with coolant molds and dies, punching® 2®13* cVIc |cVIc aluminium machining to avoid built-up edges molds and dies, punches for lower friction

14 TiAlCN tapping, milling, sawing for HSS and HM with coolant® 2®15 GRADVIc |GRADVIc see TiAlCN but with MQL also and for machining superalloys molds and dies, punches for lower friction

16* CrN cutting light metals like copper and Al alloys with low Si universal use for forming, deep drawing universal use

® 2®17* CROMVIc |CROMVIc cutting light metals like copper/ Al alloys with low Si, also for MQL universal use for forming with lower friction car parts, blisks, sawing parts, copper parts

18* CrTiN cutting high alloyed materials with HSS tools molds and dies with higher hardness, extrusion tool holders, corrosion prot., medical tools ® 2®19* CROMTIVIc |CROMTIVIc cutting high alloyed materials with HSS tools also with MQL molds and dies with lower friction car parts, blisks, sawing parts

20 Ti N medical tools and implants2

21 ZrN machining magnesium, titanium

22 AlCrN hobbing, milling

23 AlTiCrN enhanced wet hobbing and milling® 2®24 ALLVIc |ALLVIc molds and dies with MQL

®25 nACo -G hard machining on stable machine, drilling, reaming, grooving®26 nACo -ML hard machining on less stable machine, drilling punching with sharp edges® 2®27 F -VIc |F -VIc car parts with high load

®28 nACRo tough wet cutting of difficult materials (superalloys), micro tools friction welding, extrusion, die casting® 2®29 nACVIc |nACVIc cutting of high alloyed materials and titanium molds and dies, punching®30 nATCRo universal use, drilling with HSS

® 2®31 nATVIc |nATVIc universal use of forming with MQL®332 nACo like nACo but more universal and forgiving, turning stamping, punching

®333 nACRo like nACRo but more universal and forgiving friction welding, extrusion, die casting®334 nATCRo like nACTRo but more universal and forgiving

*LT: Low temperature processes possible.

ǐ ǐ

Page 22: Coating Guide 2010 - Ev14_PLATIT

44

ARC S = 0.15-0.45 µma

for milling tools

93 µm

4.2 µm

®s-LARCS = 0.03-0.08 µma

requires p coating unitwith special software

75 µm 75 µm

1.35 µm

®µ-LARCS = 0.003-0.008 µma

requires m-p coating unit

62 µm 62 µm

197 nm

®LARCS = 0.09-0.25 µma

for forming tools

65.5 µm65.5 µm

2.42 µm

43

Nan

o-

com

posi

teTr

iple

® 3C

oati

ng

(Typical coating surfaces, measured by AFM, at 2µm coating thickness)

Triple 3Coating ®

Coating Properties

42

Nan

o-

com

posi

teO

ptio

nal

Opt

iona

lB

asic

µ

S

® 2®13* cVIc |cVIc grey 20 | 25 / 37 1 - 5 0.15 | 0.1 400 | 450

14 TiAlCN burgundy-violet 33 1 - 4 0.30 500® 2®15 GRADVIc |GRADVIc grey 20 | 25 / 33 1.5 - 5 0.15 | 0.1 400 | 450 - 500

16* CrN metal-silver 18 1 - 7 0.30 700® 2®17* CROMVIc |CROMVIc grey 20 | 25 / 18 1 - 10 0.15 | 0.1 400 | 450 - 700

18* CrTiN metal-silver / gold 30 1 - 7 0.40 600® 2®19* CROMTIVIc |CROMTIVIc grey 20 | 25 / 30 1 - 10 0.15 | 0.1 400 | 450 - 600

20 Ti N silver 25 1 - 4 0.45 6002

21 ZrN white-gold 20 1 - 4 0.40 550

22 AlCrN blue-grey 32 1 - 4 0.60 900

23 AlTiCrN blue-grey 34 1 - 4 0.55 850® 2®24 ALLVIc |ALLVIc grey 20 | 25 / 34 1 - 10 0.15 | 0.1 400 | 450 - 950

®25 nACo -G violet-blue 45 1 - 4 0.45 1200®26 nACo -ML violet-blue 40 1 - 5 0.45 1100® 2®27 F -VIc |F -VIc grey 20 | 25 / 30 1 - 6 0.15 | 0.1 400 | 450 - 1200

®28 nACRo blue-grey 40 1 - 7 0.35 1100

ǐ ǐ

Color Nanohardness Thickness Friction (fretting) Max. usage Symbol-

up to [GPa] [µm] coefficient temperature [°C] color

1* TiN gold 24 1 - 7 0.55 600

2 TiAlN-MB; Ti/Al ~ 50/50% violet-black 35 1 - 4 0.60 800

3* TiAlN-F (ML); Ti/Al ~ 50/50% violet-black 28 1 - 4 0.60 700

4 TiAlN-G; Ti/Al > 50/50% violet-black 32 1 - 4 0.60 750®5 TiCN-MP red-copper 32 1 - 4 0.20 400

6 SuperTiN gold 28 1 - 7 0.40 500

7 AlTiN-T; Ti/Al ≥ 40/60% black 35 1 - 4 0.70 900

8 AlTiN-C; Ti/Al ≥ 33/67% black 38 1 - 4 0.70 900

9 AlTiN-ML; Ti/Al ≥ 40/60% black 33 1 - 4 0.70 850

10 AlTiN-G; Ti/Al ≥ 40/60% black 34 1 - 4 0.70 900®11 µAlTiN ; Ti/Al ≥ 40/60% black 34 1 - 4 0.30 900

2CBC|CBC (DLC) as top coating only grey 20 | 25 0.5 | 5 0.15 | 0.1 400 | 450

12 TiCN-grey blue-grey 37 1 - 4 0.20 400

*LT: Low temperature processes possible.

® 2®29 nACVIc |nACVIc grey 20 | 25 / 30 1 - 10 0.15 | 0.1 400 | 450 - 1100®30 nATCRo blue-grey 42 1 - 4 0.40 1150

® 2®31 nATVIc |nATVIc grey 20 | 25 / 30 1 - 8 0.15 | 0.1 400 | 450 - 1150®332 nACo violet-blue 45 / 34 1 - 5 0.45 1200 / 900

®333 nACRo blue-grey 40 / 34 1 - 5 0.35 1100 / 900®334 nATCRo blue-grey 42 / 34 1 - 5 0.40 1150 / 900

Page 23: Coating Guide 2010 - Ev14_PLATIT

coating A

coating B

primary rec.

alternativerecommendation

Coa

ting

Usa

ge R

ecom

men

dati

ons

Steels

Hardened steels

Cast Iron

Aluminium(> 12% Si)

Aluminium(< 12% Si)

Super alloys

Bronze, BrassPlastics

Copper

Cutting Chipless FormingDrilling Turning Milling Tapping Sawing Reaming

BroachingInjectionMolding

StampingPunching

Forming

nACo nACo nACRo nACVIc TiAlCN nACo nACVIc nACVIc nACVIc

µAlTiN AlTiN AlTiN GRADVIC STiN µAlTiN CrN GRADVIC TiCN-MP

nACo nACo nACo nACo nACo nACo nACo

nACo nACo nACo nACo TiAlCN nACo

µAlTiN AlTiN AlTiN TiAlCN STiN µAlTiN

nACo nACo nACo nACVIc TiCN-MP µAlTiN STiN nACo nACVIc

TiCN TiCN TiCN-MP TiCN-MP STiN TiCN-MP CrN TiCN GRADVIC

cVIc cVIc cVIc CROMVIC TiCN-MP cVIc cVIc cVIc cVIc

TiCN-MP TiCN-MP TiCN-MP TiCN-MP STiN TiCN-MP CROMVIC CROMVIC CROMVIC

nACRo nACo nACRo nACRo nACRo nACo nACVIc nACVIc nACVIc

GRADVIC GRADVIC GRADVIC GRADVIC TiAlCN GRADVIC GRADVIC GRADVIC GRADVIC

CrN CrN CrN CrN CrN CrN CrN CrN CrN

TiCN-MP TiCN-MP TiCN-MP TiCN-MP TiCN-MP TiCN-MP STiN TiCN-MP TiCN-MP

TiCN TiCN TiCN TiCN TiCN TiCN CrN TiCN TiCN

S

S

S

S

S

S

µ

µ

µ

µ

µ

© 2010 PLATIT AG. All rights reserved. Specifications subject to change. All ® signed trademarks are registered by the BCI Group. Several technologies described herein are protected by international patents. CGEV14

PLATIT AGEichholz St. 9CH-2545 Selzach / SO

Tel: +41 (32) 544 62 00Fax: +41 (32) 544 62 20E-Mail: [email protected]: www.platit.com

Des

ign:

Steels

Hardened steels

Cast Iron

Aluminium (> 12% Si)

Super alloys

Cutting Chipless

Drilling Milling Tapping Reaming Forming

Usage Recommendations for Nanocomposite Coatings

HSS HM HSS HM

Hobbing

HSS HM

nATCRo nACo nACRo nACRo nACRo nACVIc nACRo nACo nACVIc

nACo nACo nACRo nACo

nACRo nACo nACRo nACo nACo nACRo nACo

nACRo nACo nACRo nACo nACRo nACRo nACo nACVIc

nACo nACo nACRo nACRo nACRo nACo nACVIc

First Nanocomposite Coatings on Industrial Scale ...

... Inspired by Nature's Excellence!

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