2021
NEW
PRODUCTS
1
8
42
52
66
CONTENTS
SOLID MILLING CUTTERS
• S7 TROCHOIDAL 5-FLUTE
CUTTERS
• S7 HIGH PERFORMANCE
END MILLS
•BARREL END MILL
• S6 ALUMINIUM END MILLS
•  HARD MILLING CUTTER
TNGX 16
• ECONOMICAL MILLING
CUTTERS AND INSERTS
GL
• 
TOOLS AND INSERTS
T8430
•  
GRADE
2
P
P1
P1.1 < 240 HB ≤ 830
P1.2 < 180 HB ≤ 620
P1.3 < 180 HB ≤ 620
P2
P2.1 < 180 HB ≤ 620
P2.2 < 240 HB ≤ 830
P2.3 < 300 HB ≤ 1030
P3
P3.1 < 180 HB ≤ 620
P3.2 180 - 260 HB > 620 ≤ 900
P3.3 260 - 360 HB > 900 ≤ 1240
P4
P4.1 < 26 HRC ≤ 900
P4.2 26 - 39 HRC > 900 ≤ 1240
P4.3 39 - 45 HRC > 1240 ≤ 1450
M
M1
M1.1 < 160 HB ≤ 520
M1.2 160 - 220 HB > 520 ≤ 700
M2
M2.1 < 200 HB ≤ 670
M2.2 200 - 280 HB > 670 ≤ 950
M2.3 280 - 380 HB > 950 ≤ 1300
M3
M3.1 < 200 HB ≤ 750
M3.2 200 - 260 HB > 750 ≤ 870
M3.3 260 - 300 HB > 870 ≤ 1040
M4
M4.1 < 300 HB ≤ 990
M4.2 300 - 380 HB ≤ 1320
K
K1
K1.1 < 180 HB ≤ 190
K1.2 180 - 240 HB > 190 ≤ 310
K1.3 240 - 280 HB > 310 ≤ 390
K2
K2.1 < 160 HB ≤ 400
K2.2 160 - 200 HB > 400 ≤ 550
K2.3 200 - 240 HB > 550 ≤ 660
K3
K3.1 < 180 HB ≤ 560
K3.2 180 - 220 HB > 560 ≤ 680
K3.3 220 - 260 HB > 680 ≤ 800
K4
K4.1 < 180 HB ≤ 190
K4.2 < 240 HB ≤ 740
K4.3 < 280 HB > 840 ≤ 980
K4.4 280 - 320 HB > 980 ≤ 1130
K4.5 320 - 360 HB > 1130 ≤ 1280
K5
K5.1 < 180 HB ≤ 400
K5.2 180 - 220 HB > 400 ≤ 450
K5.3 220 - 260 HB > 450 ≤ 500
N
N1
N1.1 < 60 HB ≤ 240
N1.2 60 - 100 HB > 240 ≤ 400
N1.3 100 - 150 HB > 400 ≤ 590
N2
N2.1 < 75 HB ≤ 240
N2.2 75 - 90 HB > 240 ≤ 270
N2.3 90 - 140 HB > 270 ≤ 440
N3
N3.1
N3.2
N3.3
N4
N4.1
N4.2
N4.3
N5 N5.1
S
S1
S1.1 < 200 HB ≤ 660
S1.2 200 - 280 HB > 660 ≤ 950
S1.3 280 - 360 HB > 950 ≤ 1200
S2 S2.1 < 200 HB ≤ 690
S2.2 200 - 280 HB > 690 ≤ 970
S3 S3.1 < 280 HB ≤ 940
S3.2 280 - 360 HB > 940 ≤ 1200
S4 S4.1 < 240 HB ≤ 800
S4.2 240 - 320 HB > 800 ≤ 1070
H
H1 H1.1 < 440 HB
H2 H2.1 < 55 HRC
H2.2 > 55 HRC
H3
H3.1 < 51 HRC
H3.2 51 - 55 HRC
H4
H4.1 55 - 59 HRC
H4.2 > 59 HRC
ISO group WMG (Work Material Group) Hardness
(HB or HRC)
Ultimate
Tensile Strength
(MPa)
Examples of material
(AISI, EN, DIN, SS, STN, BS, UNE, CN, AFNOR, GOST, UNI...)
Free machining steel
(carbon steels with increased machinability)
sulfurized AISI 1108, EN 15S22, DIN 1.0723, SS 1922, ČSN 11120, BS 210A15, UNE F.210F, GB Y15, AFNOR 10F1, GOST A30,
UNICF10S20
sulfurized and phosphorized AISI 1211, EN 11SMn30, DIN 1.0715, SS 1912, ČSN 11109, BS 230M7, UNE F.2111, GB Y15, AFNOR S250, GOST A40G,
UNI CF9SMn28
sulfurized/phosphorized
and leaded
AISI 12L13, EN 11SMnPb30, DIN 1.0718, SS 1914, ČSN 12110, BS 210M16, UNE F.2114, GB Y15Pb, AFNOR S250Pb,
GOSTAS35G2, UNI CF10SPb20
Plain carbon steel
(steels comprised of mainly iron and carbon)
containing <0.25%C AISI 1015, EN C15, DIN 1.0401, SS 1350, ČSN 11301 , BS 080A15, UNE F.111, GB 15, AFNOR C18RR, GOST St2ps, UNI Fe360
containing <0.55%C AISI 1030, EN C30, DIN 1.0528, SS 1550, ČSN 12031, BS 080M32, UNE F.1130, GB 30, AFNOR AF50C30, GOST 30G,
UNIFe590
containing >0.55%C AISI 1060, EN C60, DIN 1.0601, SS 1655, ČSN 12061, BS 080A62, UNE F513, GB 60, AFNOR 1C60, GOST 60G, UNI C60
Alloy steel
(carbon steels with an alloying content ≤ 10%)
annealed AISI 5015, EN 16Mo3, DIN 1.5415, SS 2912, ČSN 15020, BS 1501-240, UNE F.2601, GB 16Mo, AFNOR 15D3, GOST 15M,
UNI 16Mo3KW
hardened and tempered AISI 4140, EN 42CrMo4, DIN 1.7225, SS 2244, ČSN 15142, BS 708M40, UNE F.8232, GB 42CrMo, AFNOR 42CD4,
GOST40ChFA, UNI 42CrMo4
AISI 4140, EN 42CrMo4, DIN 1.7225, SS 2244, ČSN 15142, BS 708M40, UNE F.8232, GB 42CrMo, AFNOR 42CD4,
GOST40ChFA, UNI 42CrMo4
Tool steel
(special alloy steel for tools, dies and molds)
annealed AISI D2, EN X155CrVMo12-1, DIN 1.2370, SS 2736, ČSN 19573, BS BD2, UNE F.520A, GB Cr12Mo1V1, AFNOR Z160CDV12,
GOST Ch12MF, UNI X155CrVMo121KU
hardened and tempered AISI D2, EN X155CrVMo12-1, DIN 1.2370, SS 2736, ČSN 19573, BS BD2, UNE F.520A, GB Cr12Mo1V1, AFNOR Z160CDV12,
GOST Ch12MF, UNI X155CrVMo121KU
AISI D2, EN X155CrVMo12-1, DIN 1.2370, SS 2736, ČSN 19573, BS BD2, UNE F.520A, GB Cr12Mo1V1, AFNOR Z160CDV12,
GOST Ch12MF, UNI X155CrVMo121KU
Ferritic stainless steel
(straight chromium non-hardenable alloys)
AISI S429, EN X7Cr14, DIN 1.4001, SS 2326, BS 434S17, UNE F.3401, AFNOR Z8C12, GOST 08Ch13, UNI X6CrTi12
AISI 446, EN X10CrAl24, DIN 1.4762, SS 2322, ČSN 17113, BS 430S17, UNE F.3154, GB 10Cr17, AFNOR Z10CAS24,
GOST12Ch17, UNI X16Cr26
Martensitic stainless steel
(straight chromium hardenable alloys)
annealed AISI 430F, EN X14CrMoS17, DIN 1.4104, SS 2383, ČSN 17140, BS 410S21, UNE F.3117, AFNOR Z10CF17, UNI X10CrS17
quenched and tempered AISI 440C, EN X105CrMo17, DIN 1.4125, SS 2385, ČSN 17023, BS 425C11, UNE F.3402; GB 102Cr17Mo, AFNOR Z100CD17,
GOST 95Ch18, UNI GX6CrNi 13 04
precipitation-hardened AISI 420, EN X45Cr13, DIN 1.4034, ČSN 17029, BS 425C11, UNE F.3405, AFNOR Z44C14, GOST 20X17H12, UNI X30Cr13
Austenitic stainless steel
(chromium-nickel and chromium-nickel-manganese alloys)
AISI 308, EN X5CrNi18-12, DIN 1.4303, SS 2352, ČSN 17249, BS 305S17, UNE F.3513, GB 10Cr18Ni12, AFNOR Z8CN18.12,
UNI X7CrNi18 10
AISI 309, EN X15CrNiSi20-12, DIN 1.4828, ČSN 17251, BS 309S24, UNE F.3312, GB 1Cr23Ni13, AFNOR Z15CNS20.12,
GOST20Ch20N14S2, UNI 16CrNi23 14
AISI 5848, EN X45CrNiW18-9, DIN 1.4873, BS 331S40, UNE F.3211, AFNOR Z35CNWS14-4, UNI X45CrNiW 18 9
Austenitic-ferritic (DUPLEX) or super-austenitic stainless steel AISI 329, EN X1-NiCrMoCU25-20-5, DIN 1.4539, SS 2562, ČSN 17265, BS 318S13, UNE F.3552, GB 022Cr25NiMo2N,
AFNORZ1NCDU25.20
Precipitation hardening austenitic stainless steel AISI 631 (17-7PH), EN X7CrNiAL17-7, DIN 1.4568, SS 2388, ČSN 17465 , BS 301S13, UNE F.3217, GB 07Cr17Ni7Al,
AFNOR29CNA17-07, GOST 09Ch17N7Ju1, UNI X53CrMnNiN21
Gray iron (ASTM A48) or Automotive Gray iron (ASTM A159)
(iron-carbon castings with a lamellar graphite microstructure)
ferritic or ferritic-pearlitic ASTM A48 Grade 20 (F11401), EN-JL-100, DIN GG-10 (0.6010), SS 0110, STN 422410, BS Grade 150, UNE FG10,
GBHAT100, AFNOR Ft10D, GOST SC 10, UNI G10
ferritic-pearlictic or pearlitic ASTM A48 Grade 30 (F12101), EN-JL-1030, DIN GG-20 (0.6020), SS 0120, STN 422420, BS Grade 220, UNE FG20,
GBHT200, AFNOR Ft20D, GOST 20, UNI G20
pearlitic ASTM A48 Grade 50 (F13501), EN-JL-1060, DIN GG-35 (0.6035), SS 0135, STN 422435, BS Grade 350, UNE FG35,
GBHAT300, AFNOR Ft35D, GOST SC35, UNI G35
Malleable iron (ASTM A602)
(iron-carbon castings with a graphite-free microstructure)
ferritic ASTM A602 Grade M3210 (F20000), EN-JM-1130, DIN GTS-35 (0.8135), SS 0815, BS B340/12, UNE Type A,
AFNORMN35-10, GOST 35-10
ferritic or pearlitic ASTM A602 Grade M4504 (F20001), EN-JM-1040, DIN GTS-50-05 (0.8045), BS P50-05, AFNOR MB 45-7
pearlitic ASTM A602 Grade M7002 (F20004), EN-JM-1140, DIN GTS-45 (0.8145), SS 0854, STN 422540, BS P 45-06, UNE Typ B,
AFNOR MP 50-5, GOST 45-7, UNI GMN 45
Ductile iron (ASTM A536)
(iron-carbon castings with a nodular graphite microsturcture)
ferritic ASTM A536 Grade 60-40-18 (F32800), EN-JS-1030, DIN GGG-40 (0.7040), SS 0717, STN 422304, BS 420/12,
UNE FGE42-12, GB QT 400, AFNOR FGS 400-12, GOST 40
ferritic or pearlitic ASTM A536 Grade 80-55-06 (F33800), EN-JS-1050, DIN GGG-50 (0.7050), SS 0727, STN 422305, BS 500/7, UNE FGE 50-7,
GB QT 500-7, AFNOR FGS 500-7, GOST 50
pearlitic ASTM A536 Grade 100-70-03 (F34800), EN-JS-1060, DIN GGG-60 (0.7060), SS 0732, STN 422306, BS 600/3, UNE FG70-2,
GB QT 600-3, AFNOR FGS 600-3, GOST 60
Austenitic gray iron (ASTM A436)
(iron-carbon alloy castings with an austenitic lamellar graphite microstructure)
ASTM A436 Type 1 (L-NiCuCr 15 6 2, F41000), EN-JL-3011, DIN GGL-NiMn 13 7 (0.6652), SS 0523, BS Grade F1,
AFNORFGL-Ni13Mn7, GOST S-NiMn 13 7
Austenitic ductile iron (ASTM A439 or ASTM A571)
(iron-carbon alloy castings with an austenitic nodular graphite microstructure)
ASTM A439 Type D-2B (S-NiCr 20 3, F43001), EN-JS-3021, DIN GGG-NiMn 23 4, SS 0776, BS Grade S2M, AFNOR
FGSNi23Mn4, GOST 193
Austempered ductile iron (ASTM A897)
(iron-carbon alloy castings with an ausferrite microstructure)
ASTM A897 Grade 110-70-11
ASTM A897 Grade 125-80-10, EN-JS-1100, DIN GGG-90 (5.3400)
ASTM A897 Grade 2 (150-110-07), EN-JS-1110, DIN GGG-100 (5.3403)
Compacted graphite iron CGI (ASTM A842)
(iron-carbon castings with a vermicular graphite structure)
ferritic ASTM A842 Grade 300, EN-GJV-300, DIN GGV 30, GOST 30,
ferritic-pearlitic ASTM A842 Grade 350, EN-GJV-350, DIN GGV 35 (5.2200), GOST 30,
pearlitic ASTM A842 Grade 450, EN-GJV-450, DIN GGV 45, GOST 45,
Commercially pure wrought aluminum UNS A91200, EN AL99.0, DIN 3.0205, SS 4010, STN 424009, BS 1C, UNE L-3001, GB L5, AFNOR A4, GOST , UNI 3567
Wrought aluminum alloys
half hard tempered UNS A93004, EN AlMn0.5Mg0.5, DIN 3.0505, SS 4054, STN 424432, BS N31, UNE L-3831, GB LF2, AFNOR A-M1,
GOST, UNI 3568
full hard tempered UNS A95083, EN AlMg4.5Mn0.7, DIN 3.3547, SS 4140, STN 424415, BS N8, UNE L-3321, GB AlMg4.5Mn,
AFNORA-G4.5Mn, GOST Amg 4.5, UNI P-AlMg4.4
Cast aluminium alloys
UNS A02080, EN AlCu4S, BS LM11, STN 424331, UNE Al Si1Cu, GOST AMg5K, UNI G-AlSi7Mg
UNS A02420, EN AlCu4Ni2Mg2, SS AlSi7MgFe, BS LM6, STN 424519, UNE Al-7SiMg, AFNOR A-S7G, GOST AK7,
UNIG-AlSi7Mg
UNS A03360, EN G-ALCu4NiMg2, SS ALSi10Mg, STN 424336, BS LM 30, AFNOR A-S10G, UNI G-AlSi9Mg
Free-cutting copper-alloys materials with excellent machining properties UNS C14700, EN CuPb1P, DIN 2.1498, STN 423214, BS C111, AFNOR CuZn35Pb2, GOST L63-3, UNI CuS(P0.01)
Short-chip copper-alloys with good to moderate machining properties UNS C81540, EN CuNi2SiCr, DIN 2.0857, STN 423220, BS NS113, UNE CuSn12, AFNOR CuZn40, GOST L60, UNI P-CuZn-40
Electrolytic copper and long-chip copper-alloys with moderate to poor
machining properties UNS C10100, EN CuAg0.1, DIN 2.1203, SS 5010, UNE CUSi3Mn1, AFNOR Cu-C2, GOST M1f, UNI Cu-OF
Thermoplastic polymers
ABS, Acryl, Duraplast, Elastomer, EP, Epoxid, FEP, Fluor, Gummi, Kautschuk, Latex, MF, MPF, PA, PAI, PC, PE, PEEK, PEI, PES,
PET, PF, Phenolharze, PI, PMMA, Polyamide, Polyester, Polyolene, Polysulfon, POM, PP, PPE, PPS, PS, PSU, PTFE, PU, PUR,
PVDF, SAN, SI, Styrol, UF, Ureol
Thermosetting polymers
Aramid, Epoxy, Fluoropolymer, Mehacrylate, Melamine, Phenolic, Polyester, Polyimide, Polymethacrylimide, Polyurethane
Reinforced polymers or composites CFK, GFK, GMT, Honeycomb, Kevlar, LFT, Organo, SMC
Graphite CGM-1, CM-00, GM-10, GM-11, GR030, GR030PI, GR060, GR060PI, GR125, MC-01, MC-01RO, MC-03, MC-03M
Titanium or titanium alloys
UNS R50250 (Grade 1), EN Ti 99.6, DIN 3.7035, BS TA.2, UNE Ti-Po2, AFNOR T-40, GOST BT1-00
UNS R56404 (Grade 29), EN Ti2Cu, DIN 3.7124, BS TA.21, UNE Ti-P11, AFNOR T-U2
UNS R54250 (Grade 38), EN TiAl6V4, DIN 3.7165, ČSN TiAl6VELI, BS TA. 13, UNE Ti-P63, AFNOR T-A6V, GOST BT6
Fe-based high-temperature alloys UNS N08801 (Incoloy 801), EN X8 NiCrAlTi31-21, DIN 1.4959, BS NA 15, AFNOR Z8NC33-21
UNS N19907, EN X6NiCrTiMoVB25-15-2, DIN 1.4980, SS 2570, BS HR52, AFNOR Z6NCTDV25.15B, GOST 36
Ni-based high-temperature alloys
UNS A09706 (Inconel 706), EN NiCr25FeAl, DIN 2.4856, BS HR 6, ČSN Inconel 625, UNE F.3313, GB 1Cr16Ni35,
AFNORNC22FeDNB, GOST XH38BT
UNS N07001, EN NiCr20Co13Mo4Ti3Al, DIN 2.4654, BS HR 2, ČSN Waspaloy, AFNOR NCKD 20ATV, GOST 80
Co-based high-temperature alloys UNS R30016 (Stellite 6b), EN CoCr20W15Ni, DIN 2.4964, AFNOR KC 20 WN, GOST 52
UNS R30016 (Stellite 6b), EN CoCr20W15Ni, DIN 2.4964, AFNOR KC 20 WN, GOST 52
Chilled cast iron UNS F45001, EN-GJS-1050-6, DIN 5.3406, SS 0512, BS Grade 2A
Hardended cast iron UNS F45003, EN-GJS-1400-1, DIN 5.3405, SS 0457, BS Grade 3D
UNS F45003, EN G-X260NiCr4-2, DIN 0.9620, SS 0466, BS Grade S
Hardened steel <55HRC
AISI 4135, EN 34CrMo4, DIN 1.7220, SS 2234, STN 415131, BS 198, UNE F.1250, GB 35CrMo, AFNOR 35CD4,
GOST38, UNI 35CrMo4KB
AISI 4135, EN 34CrMo4, DIN 1.7220, SS 2234, STN 415131, BS 198, UNE F.1250, GB 35CrMo, AFNOR 35CD4,
GOST38, UNI 35CrMo4KB
Hardened steel >55HRC
UNS T31501, EN 100MnCrW4, DIN 1.2510, SS 2140, STN 419413, BS BO1, UNE F.5220, GB 9CrWMn, AFNOR 90MWCrV5,
GOST 9, UNI 95MNWCr5KU
UNS T31501, EN 100MnCrW4, DIN 1.2510, SS 2140, STN 419413, BS BO1, UNE F.5220, GB 9CrWMn, AFNOR 90MWCrV5,
GOST 9, UNI 95MNWCr5KU
3
CUTDIA
HBH
HF
H
CW
CDX
LF
B
INSL
GM
CW
RE
APMX
B
CDX
CUTDIA
CW
D1
DBC1
DC
DCCB
DCON MS
DN
GAMF
GAMP
H
HBH
HF
CHW
IC
INSL
KWD
KWW
L
LF
LU
NOF
OAL
PRFRAD(2)
RE
S
TDZ
DC
LU
OAL
90°
DCON MS
DIN 1835A
LU
90°
OAL
DC
DIN 1835B
DCON MS
LF
TDZ
OAL
DCON MS
90°
DC
DCON MS
KWW
LF
90°
DC
DCCB
KWD
DC 40 – 140 mm
DC 160 – 175 mm
DC
DBC1
LF
90°
DCON MS
KWW
KWD
ISO 13399 Description
Depth of cut maximum
Shank width
Cutting depth maximum
Work piece parting diameter maximum
Cutting width
Fixing hole diameter
Diameter bolt circle
Cutting diameter
Counterbore diameter connection bore
Connection diameter
Neck diameter
Radial rake angle
Axial rake angle
Shank height
Head bottom oset height
ISO 13399 Description
Corner chamfer width
Functional height
Inscribed circle diameter
Insert length
Keyway depth
Keyway width
Cutting edge length
Functional length
Usable length
Number of utes
Overall length
Prole radius
Corner radius
Insert thickness
Thread diameter size
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-


   

 -





4
DIN 6535HA
General features of tools
Possible applications
Shank type Direction of cut
Basic standard group (BSG) Material code (BMC) Cooling
Primary use
Possible use
Finishing – very good surface quality
Medium machining – good surface quality
Roughing – unlimited surface roughness
DIN 6535 HB Weldon Shank
DIN 6535 HA Cylindrical Shank
DIN 1835A Cylindrical Shank
Direction of cut - left
Direction of cut - right
Dormer Standards Hard Material (Solid Carbide) Through Tool Coolant
Suitable for stable working conditions
Suitable for unstable working conditions
Suitable for very unstable working conditions
DIN 1835B Weldon Shank
Threaded coupling
Arbor DIN 8030
Contoured Surfaces (copy milling)
Deep shoulder milling
Deep slot milling
Drilling
Face milling
Helical interpolation
Helical interpolation in a pre-drilled hole
Plunge Milling
Progressive Plunging
Ramping
Shallow shoulder milling
Shallow slot milling
Trochoidal Milling
Turn-milling
Copy turning (multi directional machining)
Deep radial groove
Parting o
Shallow radial groove
Tube parting o
Wide radial groove (with following expansion)

5
h9
DC
FS
NOF
2
NOF
3
NOF
3-4
NOF
4=
l
30°
g
7°
g
8°
Cutting diameter tolerance class (TCDC) Milling Direction
h9 - Industry StandardToolTolerance Zone
(based on diameter range) Plunging, Ramping, Side Cutting
Ramping, Side Cutting
Side Cutting
Cut length
Mill Prole
Number of utes
Extra short
Short
General Purpose CutterType for Low to High
Resistance Materials
Semi-nishing Prole Chipbreaker
Number of Flutes =2 (teeth)
Number of Flutes =3 (teeth)
Medium
Long
Coarse Pitch Asymmetrical Rounded Prole
Chipbreaker
Non-ferrousCutterType forSoft MalleableMa-
terials
Number of Flutes =3 (dierential pitch)
Number of Flutes =3-4 (teeth)
Extra long
Non-ferrousCutterType with Coarse Pitch
Asymmetrical Rounded Prole Chipbreaker
Number of Flutes =4 (dierential pitch)
Number of Flutes =5 (teeth)
Flute Helix (FHA) Radial rake angle (GAMF)
40° Helix Angle (Flute)
Unequal (Variable) Helix
30° Helix Angle (Flute)
10° Radial Rake Angle (cutting)
20° Radial Rake Angle (cutting)
15° Radial Rake Angle (cutting)
7° Radial Rake Angle (cutting)
-6° Radial Rake Angle (cutting)
8° Radial Rake Angle (cutting)
13° Radial Rake Angle (cutting)

7
& 8
& 12
& 14
& 16
& 18

S7 TROCHOIDAL 5-FLUTE CUTTERS
S7 HIGH PERFORMANCE END MILLS
BARREL END MILL
S6 ALUMINIUM END MILLS
 HARD MILLING CUTTER
10

60
668
a35
ae
13

S7 









 in









• 




 
  
  
  
 


 
 
 




11
35
160
a20
ae
60

S770HB




S7 













 in

 
  
  
  
 


 
 
 




 in






• 




    
 -Yes -Yes
 -Yes -Yes
 -Yes -Yes
 
13

S765HB
S768
S7





















 in


 - - Yes
 7° 10° 10°
 -Yes -
   
   TiSiN
 Yes -Yes
 DIN 6535 HB DIN 6535 HB DIN 6535 HA



14
15
S791
85 5
4 2
v 150 120
 
a 
ae 
 165
 

aa

 






300-320 HB
 
 
  
 

 
 
 
 

 







 

 
 







 in















Barrel End Mill Ballnose End Mill
16
17

S654

S650
S6




 3 3 3 4
 Yes -Yes Yes
 - - Yes -
 - - - Yes
 - - Yes -
Yes - - -
















 in






18
19















• 









20
P
P1
P2
P3
P4
M
M1
M2
M3
M4
K
K1
K2
K3
K4
K5
N
N1
N2
N3
N4
N5
S
S1
S2
S3
S4
H
H1
H2
H3
H4
&26 &27 &28 &29 &30 &31 &32 &33 &34 &35 &36 &37 &38
FS FS
NOF
4=
NOF
4=
NOF
4=NOF
3-4
NOF
4=NOF
2
NOF
2
NOF
3
NOF
2
l
30°
l
30°
l
30°
l
30°
g
7°
g
8°
DIN 6535HA DIN 6535HA DIN 6535HA DIN 6535HA DIN 6535HA DIN 6535HA DIN 6535HA
h9
DC
h9
DC
h9
DC
h9
DC
h9
DC
h9
DC
h9
DC
h9
DC
h9
DC
h9
DC
h9
DC
h9
DC
S722HB S765HB S768 S770HB S771HB S772HB S773HB S791 S561 S610 S611 S614 S629
3.00 - 20.00 6.00 - 20.00 4.00 - 20.00 10.00 - 20.00 10.00 - 20.00 10.00 - 20.00 10.00 - 20.00 6.00 - 16.00 1.00 - 20.00 2.00 - 20.00 3.00 - 20.00 3.00 - 16.00 1.00 - 20.00
Primary use Possible use
Material code (BMC)
Mill Prole
Number of utes (NOF)
Cut length
Flute Helix (FHA)
Radial rake angle (GAMF)
Shank
Coating
Cutting diameter tolerance
class (TCDC)
Direction
Basic standard group (BSG)
Cooling (CSP)
Product Family Code
21
P1
P2
P3
P4
M1
M2
M3
M4
K1
K2
K3
K4
K5
N1
N2
N3
N4
N5
S1
S2
S3
S4
H1
H2
H3
H4
&39 &40 &41
NOF
4=
DIN 6535HA DIN 6535HA DIN 6535HA
h9
DC
h9
DC
h9
DC
S650 S654 S662
1.00 - 20.00 6.00 - 20.00 3.00 - 20.00
Primary use Possible use
22

DC
APMX
FFW = 0.5 X DC
DC
APMX EFW = DC
APMX
FFW = 0.5 X DC
APMX
APMX
DC
EFW ≥ 0.5 x DC
FFW = DC
 
ø DC [mm]
1.00 2.00 3.00 4.00 5.00 6.00 7.00 8.00 9.00 10.00 12.00 14.00 16.00 18.00 20.00 22.00 25.00
A0.002 0.003 0.004 0.005 0.006 0.007 0.008 0.009 0.010 0.011 0.014 0.015 0.017 0.019 0.021 0.025 0.028
B0.002 0.003 0.004 0.005 0.006 0.007 0.008 0.009 0.010 0.011 0.014 0.015 0.017 0.019 0.021 0.025 0.028
C0.002 0.003 0.004 0.005 0.006 0.007 0.008 0.009 0.010 0.011 0.014 0.015 0.017 0.019 0.021 0.025 0.028
D0.002 0.003 0.004 0.005 0.007 0.008 0.009 0.010 0.011 0.012 0.014 0.015 0.017 0.019 0.021 0.025 0.028
E0.002 0.003 0.004 0.008 0.009 0.012 0.013 0.014 0.015 0.016 0.019 0.021 0.024 0.026 0.028 0.030 0.034
F0.002 0.003 0.006 0.010 0.013 0.016 0.017 0.019 0.021 0.022 0.026 0.029 0.032 0.035 0.039 0.042 0.047
G0.002 0.005 0.008 0.014 0.018 0.022 0.024 0.026 0.028 0.031 0.035 0.040 0.044 0.048 0.053 0.057 0.064
I0.003 0.006 0.011 0.019 0.024 0.030 0.032 0.036 0.039 0.042 0.049 0.054 0.061 0.066 0.073 0.079 0.088
J0.004 0.009 0.014 0.026 0.033 0.041 0.044 0.048 0.053 0.057 0.066 0.074 0.083 0.090 0.099 0.107 0.120
K0.006 0.012 0.019 0.035 0.044 0.054 0.059 0.064 0.070 0.076 0.088 0.098 0.110 0.120 0.132 0.142 0.160
N0.008 0.016 0.025 0.047 0.058 0.072 0.078 0.086 0.094 0.101 0.117 0.131 0.146 0.160 0.175 0.189 0.212
O0.010 0.021 0.034 0.062 0.078 0.096 0.104 0.114 0.124 0.135 0.156 0.174 0.195 0.213 0.233 0.252 0.283
P0.014 0.028 0.045 0.083 0.104 0.128 0.138 0.152 0.166 0.180 0.207 0.231 0.259 0.283 0.311 0.335 0.376
R0.018 0.037 0.060 0.110 0.138 0.170 0.184 0.202 0.221 0.239 0.276 0.308 0.345 0.377 0.414 0.446 0.501
S0.024 0.049 0.080 0.147 0.183 0.226 0.245 0.269 0.294 0.318 0.367 0.410 0.459 0.502 0.550 0.593 0.667

Feed per tooth (fz in mm/rev)
Depending on the working condi-
tions it might be necessary to adjust
these values ± 25 %
ONLY if plunging into solid material
with a center cutting end mill the
values in this table should be consi-
dered as fn (feed per revolution)
How to use this table to nd the feed per tooth (fz):
1. Find your Alpha Code on the product page (example: 199K, “K“ is the Alpha Code).
2. Find the closest diameter for your cutting application in the top row of the table.
3. Find your Alpha Code in the left column of the table.
4. The intersection (cell) of the Diameter and Alpha Code is the feed per tooth (fz).
FOR SOLID
CARBIDE
MILLING
CUTTERS ONLY
Feed rates
23


APMX FFW / DC 25% 50% 100% 150%
x.v 1.25 1.00 0.75 0.50
x.f
1.25 1.00 0.75 0.50
APMX EFW / DC 5% 10% 15% 20% 25% 30% 40% ≥ 50%
x.v 1.48 1.35 1.27 1.22 1.19 1.16 1.11 1.00
x.f
2.29 1.67 1.40 1.25 1.15 1.09 1.02 1.00
APMX FFW / DC 5% 10% 15% 20% 25% 30% 40% 50%
x.v 2.29 1.67 1.40 1.25 1.15 1.09 1.02 1.00
Ø DC
mm
2 4 8 16 32 63 125 250
20.13 0.18 0.25 0.36 0.50 0.70 0.97 1.32
30.15 0.22 0.31 0.44 0.62 0.86 1.20 1.66
40.18 0.25 0.36 0.50 0.71 1.00 1.39 1.94
50.20 0.28 0.40 0.56 0.80 1.12 1.56 2.18
60.22 0.31 0.44 0.62 0.87 1.22 1.71 2.40
80.25 0.36 0.51 0.71 1.01 1.41 1.98 2.78
10 0.28 0.40 0.57 0.80 1.13 1.58 2.22 3.12
12 0.31 0.44 0.62 0.88 1.24 1.73 2.44 3.43
14 0.33 0.47 0.67 0.95 1.34 1.87 2.63 3.71
16 0.36 0.51 0.72 1.01 1.43 2.00 2.82 3.97
18 0.38 0.54 0.76 1.07 1.52 2.13 2.99 4.21
20 0.40 0.57 0.80 1.13 1.60 2.24 3.15 4.44
22 0.42 0.59 0.84 1.19 1.68 2.35 3.31 4.66
25 0.45 0.63 0.89 1.26 1.79 2.51 3.53 4.97
28 0.47 0.67 0.95 1.34 1.89 2.65 3.73 5.27
fe




Line oset fe (step-over distance) for achieving a theoretical surface roughness Rz
Correction factors for cutting speed Vc and feed per tooth fz for slot milling operations at dierent depths of cut
Correction factors for cutting speed Vc and feed per tooth fz for square shoulder milling with <50% radial immersion
We recommend to avoid milling with 50% radial immersion
Correction factors for cutting speed Vc for plain copy milling at dierent depths of cut
Line oset dimensions shown are Metric (mm) only
24

APMX
FFW
APMX
EFW 5% 10% 15% 20% 25% 30% 35% 40% 50%
5%
x.f
5.26 3.82 3.21 2.87 2.65 2.50 2.40 2.34 2.29
10% 3.82 2.78 2.33 2.08 1.92 1.82 1.75 1.70 1.67
15% 3.21 2.33 1.96 1.75 1.62 1.53 1.47 1.43 1.40
20% 2.87 2.08 1.75 1.56 1.44 1.36 1.31 1.28 1.25
25% 2.65 1.92 1.62 1.44 1.33 1.26 1.21 1.18 1.15
30% 2.50 1.82 1.53 1.36 1.26 1.19 1.14 1.11 1.09
35% 2.40 1.75 1.47 1.31 1.21 1.14 1.10 1.07 1.05
40% 2.34 1.70 1.43 1.28 1.18 1.11 1.07 1.04 1.02
45% 2.31 1.68 1.41 1.26 1.16 1.10 1.05 1.03 1.01
50% 2.29 1.67 1.40 1.25 1.15 1.09 1.05 1.02 1.00
DC
APMX EFW
APMX FFW

How to use this table to nd the correction factor for the feed per tooth (fz or IPT) )
for plain copy milling:
1. Find the closest radial immersion (APMX EFW / DC) for your cutting application in the top
row of the table.
3. Find your closest immersion (APMX FFW / DC) for your cutting application in the left column
of the table.
3. The intersection (cell) of the radial and axial immersions is the correction factor for the feed
per tooth.
Example for plain copy milling:
1. Applying an 8mm ball nose cutter with a depth of cut of 0,8mm (APMX FFW), the aim is to
achieve a theoretical surface roughness of 32 m.
2. The correction factor for cutting speed with an axial immersion of 10% = 1,67 can be found
in table 3a.
3. The step-over distance for a Rz of 32m = 1,01mm can be found in table 3b.
4. The correction factor for feed per tooth with an axial immersion of 10% and a radial immer-
sion of 1,01 / 8 = 12.6% can be found in table 3c and is in this case 2,33.
Correction factors for feed per tooth fz for plain copy milling with a line oset < 50%xD at dierent depths of cut
To increase the surface quality, the tool or surface shoulde inclinded with a tilt angle o 10-15°
25
DC APMX FFW
APMX EFW ≤ 0 .05x D C
ø DC [mm]
6.00 8.00 10.00 12.00 16.00
E0.030 0.039 0.053 0.067 0.096
F 0.037 0.050 0.064 0.083 0.118
I 0.062 0.084 0.111 0.141 0.203

FOR SOLID CARBIDE
BARREL CUTTERS ONLY
How to use this table to nd the feed per tooth (fz):
1. Find your Alpha Code on the product page (example: 121F,
“F“ is the Alpha Code).
2. Find the closest diameter for your cutting application in
the top row of the table.
3. Find your Alpha Code in the left column of the table.
4. The intersection (cell) of the Diameter and Alpha Code is
the feed per tooth (fz).
Feed per tooth
(fz in mm/rev
Depended of the wor-
king conditions it might
be needed to adjust
these values ± 25%
Feed rates
26
NOF
4=
g
7°
h9
DC

P1.1
199 J
P1.2
223 J
P1.3
230 J
P2.1
170 J
P2.2
150 J
P2.3
133 I
P3.1
138 J
P3.2
111 I
P3.3
94 I
P4.1
82 I
P4.2
70 I
M1.1
115 J
M1.2
97 J
M2.1
102 J
M2.2
84 I
M3.1
94 I
M3.2
81 I
K1.1
196 J
K1.2
145 J
K1.3
109 J
K2.1
202 J
K2.2
164 J
K2.3
131 I
K3.1
178 J
K3.2
136 J
K3.3
110 I
K4.1
165 I
K4.2
125 I
K4.3
91 I
K4.4
78 I
K4.5
65 I
K5.1
187 I
K5.2
141 I
K5.3
109 I
S1.2
69 I
S2.1
53 I
S3.1
40 I
S4.1
31 I
DC RE DCON MS APMX OAL NOF LU DN
[mm] [mm] [mm] [mm] [mm] [mm] [mm]
S722HB3.0 3.00 0.10 6.00 9.00 50.0 4 15.00 2.80
S722HB4.0 4.00 0.10 6.00 11.00 57.0 4 20.00 3.70
S722HB5.0 5.00 0.10 6.00 13.00 57.0 4 20.00 4.60
S722HB6.0 6.00 0.10 6.00 20.00 60.0 4 25.00 5.50
S722HB8.0 8.00 0.20 8.00 20.00 64.0 4 26.00 7.40
S722HB10.0 10.00 0.20 10.00 27.00 70.0 4 32.00 9.20
S722HB12.0 12.00 0.20 12.00 26.00 83.0 4 37.00 11.00
S722HB14.0 14.00 0.20 14.00 26.00 83.0 4 37.00 13.00
S722HB16.0 16.00 0.20 16.00 32.00 92.0 4 42.00 15.00
S722HB18.0 18.00 0.20 18.00 32.00 92.0 4 42.00 17.00
S722HB20.0 20.00 0.20 20.00 38.00 104.0 4 50.00 19.00
4-Flute Solid Carbide End Mill
Medium cutting length 4-ute design with 40° helix and neck recess and weldon shank provides high rigidity for prole milling deep walls.
Premium carbide with AlCrN coating increases service life and improves performance. For plunging, ramping and prole milling.
Workpiece material group suitability and starting values for cutting speed (m/min). Letter code feed table can be found on page 22.
DCON MS tolerance h6; RE ±0.02 mm.
Product
27
NOF
4=
h9
DC
S765HB
P1.1
211 J
P1.2
236 J
P1.3
243 J
P2.1
180 J
P2.2
158 J
P2.3
140 J
P3.1
146 J
P3.2
117 J
P3.3
99 J
P4.1
86 J
P4.2
74 J
M1.1
122 J
M1.2
103 J
M2.1
108 J
M2.2
89 J
M3.1
100 J
M3.2
86 J
K1.1
208 J
K1.2
154 J
K1.3
116 J
K2.1
214 J
K2.2
174 J
K2.3
139 J
K3.1
189 J
K3.2
145 J
K3.3
117 J
K4.1
176 J
K4.2
132 J
K4.3
97 J
K4.4
83 I
K4.5
69 I
K5.1
199 J
K5.2
149 J
K5.3
116 J
S1.2
72 J
S2.1
56 I
S3.1
42 I
S4.1
33 I
DC CHW DCON MS APMX OAL NOF
[mm] [mm] [mm] [mm] [mm]
S765HB6.0 6.00 0.10 6.00 16.00 50.0 4
S765HB8.0 8.00 0.20 8.00 20.00 64.0 4
S765HB10.0 10.00 0.20 10.00 22.00 70.0 4
S765HB12.0 12.00 0.20 12.00 26.00 75.0 4
S765HB14.0 14.00 0.30 14.00 32.00 90.0 4
S765HB16.0 16.00 0.30 16.00 32.00 90.0 4
S765HB18.0 18.00 0.30 18.00 38.00 100.0 4
S765HB20.0 20.00 0.40 20.00 38.00 100.0 4
4-Flute Solid Carbide Roughing End Mill
Short cutting length 4-ute design with NRA prole and 40° helix is designed to break chips for ecient roughing applications. AlCrN coating
improves performance. For plunging, ramping and prole milling.
Workpiece material group suitability and starting values for cutting speed (m/min). Letter code feed table can be found on page 22.
DCON MS tolerance h6; CHW ± 0.02X45° mm.
Product
28
APMX
DCON MS
DC
LU
OAL
DN
NOF
4=
DIN 6535HA
h9
DC
S768
P1.1
148 I
P1.2
165 I
P1.3
170 I
P2.1
126 I
P2.2
111 I
P2.3
98 G
P3.1
102 I
P3.2
82 G
P3.3
69 G
P4.1
60 G
P4.2
52 G
M1.1
85 I
M1.2
72 I
M2.1
76 I
M2.2
62 I
M3.1
70 I
M3.2
60 I
K1.1
146 I
K1.2
108 I
K1.3
81 I
K2.1
150 I
K2.2
122 I
K2.3
97 G
K3.1
132 I
K3.2
102 I
K3.3
82 G
K4.1
123 G
K4.2
92 G
K4.3
68 G
K4.4
58 I
K4.5
48 I
K5.1
139 G
K5.2
104 G
K5.3
81 G
S1.2
50 I
S2.1
39 G
S3.1
29 G
S4.1
23 G
DC RE DCON MS APMX OAL NOF LU DN
[mm] [mm] [mm] [mm] [mm] [mm] [mm]
S7684.0 4.00 0.10 6.00 19.00 75.0 4 32.00 3.70
S7685.0 5.00 0.10 6.00 19.00 75.0 4 32.00 4.60
S7686.0 6.00 0.10 6.00 25.00 75.0 4 32.00 5.50
S7688.0 8.00 0.20 8.00 30.00 75.0 4 38.00 7.40
S76810.0 10.00 0.20 10.00 40.00 100.0 4 50.00 9.20
S76812.0 12.00 0.30 12.00 45.00 100.0 4 55.00 11.00
S76816.0 16.00 0.30 16.00 65.00 125.0 4 75.00 15.00
S76820.0 20.00 0.30 20.00 65.00 125.0 4 75.00 19.00
4-Flute Solid Carbide End Mill, Long Series
Long cutting length 4-ute design with unequal helix provides high rigidity for prole milling deep walls. TiSiN coating increases service life and
improves performance. For plunging, ramping and prole milling.
Workpiece material group suitability and starting values for cutting speed (m/min). Letter code feed table can be found on page 22.
DCON MS tolerance h6; RE ±0.01 mm.
Product
29
h9
DC
S770HB
P1.1
211 I
P1.2
236 I
P1.3
243 I
P2.1
180 I
P2.2
158 I
P2.3
140 I
P3.1
146 I
P3.2
117 I
P3.3
99 I
P4.1
86 I
P4.2
74 I
M1.1
122 I
M1.2
103 I
M2.1
108 I
M2.2
89 I
M3.1
100 I
M3.2
86 I
K1.1
208 I
K1.2
154 I
K1.3
116 I
K2.1
214 I
K2.2
174 I
K2.3
139 I
K3.1
189 I
K3.2
145 I
K3.3
117 I
K4.1
176 I
K4.2
132 I
K4.3
97 I
K4.4
83 G
K4.5
69 G
K5.1
199 I
K5.2
149 I
K5.3
116 I
S1.2
72 I
S2.1
56 G
S3.1
42 G
S4.1
33 G
DC RE DCON MS APMX OAL NOF
[mm] [mm] [mm] [mm] [mm]
S770HB10.0 10.00 0.20 10.00 22.00 72.0 5
S770HB12.0 12.00 0.30 12.00 26.00 83.0 5
S770HB16.0 16.00 0.30 16.00 32.00 92.0 5
S770HB20.0 20.00 0.30 20.00 38.00 104.0 5
5-Flute Solid Carbide End Mill
Short cutting length 5-ute design with unequal helix provides high rigidity for pocketing, trochoidal and prole milling. AlCrN coating increases
service life and improves performance. For interpolating, ramping and prole milling.
Workpiece material group suitability and starting values for cutting speed (m/min). Letter code feed table can be found on page 22.
DCON MS tolerance h6; RE ±0.01 mm.
Product
30
FS
h9
DC

P1.1
222 J
P1.2
248 J
P1.3
255 J
P2.1
189 J
P2.2
166 J
P2.3
147 I
P3.1
153 J
P3.2
123 I
P3.3
104 I
P4.1
90 I
P4.2
78 I
M1.1
128 I
M1.2
108 I
M2.1
113 I
M2.2
93 I
M3.1
105 I
M3.2
90 I
K1.1
218 J
K1.2
162 J
K1.3
122 J
K2.1
225 J
K2.2
183 J
K2.3
146 I
K3.1
198 J
K3.2
152 I
K3.3
123 I
K4.1
185 I
K4.2
139 I
K4.3
102 I
K4.4
87 I
K4.5
72 I
K5.1
209 I
K5.2
156 I
K5.3
122 I
S1.2
76 I
S2.1
59 I
S3.1
44 G
S4.1
35 G
DC RE DCON MS APMX OAL NOF LU DN
[mm] [mm] [mm] [mm] [mm] [mm] [mm]
S771HB10.0 10.00 0.20 10.00 25.00 72.0 5 30.00 9.70
S771HB12.0 12.00 0.20 12.00 30.00 83.0 5 38.00 11.70
S771HB16.0 16.00 0.30 16.00 39.00 92.0 5 44.00 15.70
S771HB20.0 20.00 0.30 20.00 48.00 104.0 5 54.00 19.70
5-Flute Solid Carbide End Mill with Chip Dividers
Short cutting length 5-ute design with chip dividers and unequal helix provides high rigidity for pocketing, trochoidal and prole milling. AlCrN
coating increases service life and improves performance. For interpolating, ramping and prole milling.
Workpiece material group suitability and starting values for cutting speed (m/min). Letter code feed table can be found on page 22.
DCON MS tolerance h6; RE ±0.01 mm.
Product
31
h9
DC

P1.1
148 G
P1.2
165 G
P1.3
170 G
P2.1
126 G
P2.2
111 G
P2.3
98 F
P3.1
102 G
P3.2
82 F
P3.3
69 F
P4.1
60 F
P4.2
52 F
M1.1
85 G
M1.2
72 G
M2.1
76 G
M2.2
62 G
M3.1
70 G
M3.2
60 G
K1.1
146 G
K1.2
108 G
K1.3
81 G
K2.1
150 G
K2.2
122 G
K2.3
97 F
K3.1
132 G
K3.2
102 G
K3.3
82 F
K4.1
123 F
K4.2
92 F
K4.3
68 F
K4.4
58 G
K4.5
48 G
K5.1
139 F
K5.2
104 F
K5.3
81 F
S1.2
50 F
S2.1
39 F
S3.1
29 F
S4.1
23 F
DC RE DCON MS APMX OAL NOF
[mm] [mm] [mm] [mm] [mm]
S772HB10.0 10.00 0.20 10.00 38.00 100.0 5
S772HB12.0 12.00 0.30 12.00 45.00 100.0 5
S772HB16.0 16.00 0.30 16.00 55.00 125.0 5
S772HB20.0 20.00 0.30 20.00 65.00 125.0 5
5-Flute Solid Carbide End Mill, Long Series
Long cutting length 5-ute design with unequal helix provides high rigidity for pocketing, trochoidal and prole milling. AlCrN coating increases
service life and improves performance. For interpolating, ramping and prole milling.
Workpiece material group suitability and starting values for cutting speed (m/min). Letter code feed table can be found on page 22.
DCON MS tolerance h6; RE ±0.01 mm.
Product
32
FS
h9
DC

P1.1
155 G
P1.2
173 G
P1.3
179 G
P2.1
132 G
P2.2
117 G
P2.3
103 F
P3.1
107 G
P3.2
86 F
P3.3
72 F
P4.1
63 F
P4.2
55 F
M1.1
89 F
M1.2
76 F
M2.1
80 F
M2.2
65 F
M3.1
74 F
M3.2
63 F
K1.1
153 G
K1.2
113 G
K1.3
85 G
K2.1
158 G
K2.2
128 G
K2.3
102 F
K3.1
139 G
K3.2
107 G
K3.3
86 F
K4.1
129 F
K4.2
97 F
K4.3
71 F
K4.4
61 F
K4.5
50 F
K5.1
146 F
K5.2
109 F
K5.3
85 F
S1.2
53 F
S2.1
41 F
S3.1
30 F
S4.1
24 F
DC RE DCON MS APMX OAL NOF LU DN
[mm] [mm] [mm] [mm] [mm] [mm] [mm]
S773HB10.0 10.00 0.20 10.00 42.00 100.0 5 52.00 9.70
S773HB12.0 12.00 0.20 12.00 42.00 100.0 5 54.00 11.70
S773HB16.0 16.00 0.30 16.00 60.00 125.0 5 68.00 15.70
S773HB20.0 20.00 0.30 20.00 67.00 125.0 5 75.00 19.70
5-Flute Solid Carbide End Mill with Chip Dividers, Long Series
Long cutting length 5-ute design with chip dividers and unequal helix provides high rigidity for pocketing, trochoidal and prole milling. AlCrN
coating increases service life and improves performance. For interpolating, ramping and prole milling.
Workpiece material group suitability and starting values for cutting speed (m/min). Letter code feed table can be found on page 22.
DCON MS tolerance h6; RE ±0.01 mm.
Product
33
NOF
3-4
l
30°
g
8°
DIN 6535HA

P1.1
161 F
P1.2
181 F
P1.3
186 F
P2.1
138 F
P2.2
121 F
P2.3
108 E
P3.1
112 F
P3.2
90 E
P3.3
76 E
P4.1
66 E
P4.2
57 E
P4.3
46 E
M1.1
94 F
M1.2
79 F
M2.1
83 F
M2.2
69 E
M3.1
77 E
M3.2
66 E
M3.3
59 E
M4.1
58 E
K1.1
161 F
K1.2
119 F
K1.3
89 F
K2.1
165 F
K2.2
134 F
K2.3
107 E
K3.1
146 F
K3.2
112 F
K3.3
90 E
K4.1
136 E
K4.2
102 E
K4.3
75 E
K4.4
64 E
K4.5
54 E
K5.1
154 E
K5.2
115 E
K5.3
89 E
N1.1
355 I
N1.2
267 I
N1.3
179 I
N2.1
179 F
N2.2
160 F
N2.3
115 F
N3.1
187 F
N3.2
109 F
N3.3
56 F
N4.1
187 F
N4.2
72 F
S1.1
58 E
S1.2
56 E
S2.1
43 E
S3.1
33 E
S4.1
26 E
DC RE PRFRAD(2) DCON MS APMX OAL NOF
[mm] [mm] [mm] [mm] [mm] [mm]
S7916.0 6.00 1.00 95.0 6.00 22.00 67.0 3
S7918.0 8.00 1.00 90.0 8.00 25.00 75.0 3
S79110.0 10.00 2.00 85.0 10.00 26.00 75.0 4
S79112.0 12.00 2.00 80.0 12.00 28.00 83.0 4
S79116.0 16.00 3.00 75.0 16.00 31.00 90.0 4
3 & 4 - Flute Solid Carbide Barrel End Mill
Medium cutting length 3 & 4-ute design with large tangential radius and ball nose to increase contact with workpiece to reduce cycle time and
improve surface nish of steep walls. AlCrN coating increases service life and improves performance. For semi-nishing and nishing.
Workpiece material group suitability and starting values for cutting speed (m/min). Letter code feed table can be found on page 22.
DCON MS tolerance h6; RE ±0.01 mm; PRFRAD(2) ±0.01 mm.
Product
34
NOF
4=
DIN 6535HA
h9
DC

H1.1
119 I
H2.1
70 G
H2.2
60 E
H3.1
78 G
H3.2
64 G
H4.1
50 E
H4.2
42 B
DC DCON MS APMX OAL NOF
[mm] [mm] [mm] [mm]
S5611.0 1.00 6.00 3.00 50.0 4
S5611.5 1.50 6.00 4.50 50.0 4
S5612.0 2.00 6.00 6.50 50.0 4
S5612.5 2.50 6.00 6.50 50.0 4
S5613.0 3.00 6.00 9.00 50.0 4
S5614.0 4.00 6.00 12.00 50.0 4
S5615.0 5.00 6.00 15.00 50.0 4
S5616.0 6.00 6.00 20.00 60.0 4
S5618.0 8.00 8.00 20.00 64.0 4
S56110.0 10.00 10.00 22.00 70.0 4
S56112.0 12.00 12.00 25.00 75.0 4
S56114.0 14.00 14.00 32.00 90.0 4
S56116.0 16.00 16.00 32.00 90.0 4
S56118.0 18.00 18.00 38.00 100.0 4
S56120.0 20.00 20.00 38.00 100.0 4
4-Flute Solid Carbide End Mill
Medium cutting length 4-ute design provides high rigidity for standard prole milling. TiSiN coating improves performance and 40° helix is
designed for high performance proling on CNC machines. For high speed machining.
Workpiece material group suitability and starting values for cutting speed (m/min). Letter code feed table can be found on page 22.
DCON MS tolerance h6.
Product
35
APMX
DCON MS
DC
OAL
NOF
2
l
30°
DIN 6535HA
h9
DC

N1.1
709 P
N1.2
533 P
N1.3
357 P
N2.1
357 O
N2.2
320 O
N2.3
229 O
N3.1
373 O
N3.2
219 O
N3.3
112 O
N4.1
373 R
N4.2
144 R
DC RE DCON MS APMX OAL NOF
[mm] [mm] [mm] [mm] [mm]
S6102.0 2.00 0.10 4.00 6.50 40.0 2
S6103.0XD3 3.00 0.10 3.00 9.00 40.0 2
S6103.0XD6 3.00 0.10 6.00 9.00 50.0 2
S6104.0XD4 4.00 0.10 4.00 12.00 50.0 2
S6104.0XD6 4.00 0.10 6.00 12.00 50.0 2
S6105.0 5.00 0.10 6.00 15.00 50.0 2
S6106.0 6.00 0.10 6.00 20.00 50.0 2
S6108.0 8.00 0.10 8.00 20.00 64.0 2
S61010.0 10.00 0.10 10.00 22.00 75.0 2
S61012.0 12.00 0.10 12.00 25.00 75.0 2
S61014.0 14.00 0.10 14.00 32.00 90.0 2
S61016.0 16.00 0.10 16.00 32.00 90.0 2
S61020.0 20.00 0.10 20.00 38.00 100.0 2
2-Flute Solid Carbide End Mill
Short cutting length 2-ute design provides high rigidity for milling standard slots and proling. S610 with high hook geometry is designed for
high performance machining. Bright polished nish prevents work piece material from sticking to the cutting edge.
Workpiece material group suitability and starting values for cutting speed (m/min). Letter code feed table can be found on page 22.
DCON MS tolerance h6; RE ±0.02 mm.
Product
36
APMX
DCON MS
DC
LU
OAL
DN
NOF
2
l
30°
DIN 6535HA
h9
DC

N1.1
638 P
N1.2
480 P
N1.3
321 P
N2.1
321 O
N2.2
288 O
N2.3
206 O
N3.1
336 O
N3.2
197 O
N3.3
101 O
N4.1
336 R
N4.2
130 R
DC RE DCON MS APMX OAL NOF LU DN
[mm] [mm] [mm] [mm] [mm] [mm] [mm]
S6113.0XD3 3.00 0.10 3.00 9.00 40.0 2 15.00 2.80
S6113.0XD6 3.00 0.10 6.00 9.00 50.0 2 15.00 2.80
S6114.0XD4 4.00 0.10 4.00 12.00 50.0 2 20.00 3.70
S6114.0XD6 4.00 0.10 6.00 12.00 50.0 2 20.00 3.70
S6115.0 5.00 0.10 6.00 15.00 50.0 2 20.00 4.60
S6116.0 6.00 0.10 6.00 16.00 80.0 2 40.00 5.50
S6118.0 8.00 0.10 8.00 20.00 80.0 2 40.00 7.40
S61110.0 10.00 0.10 10.00 22.00 100.0 2 60.00 9.20
S61112.0 12.00 0.10 12.00 25.00 100.0 2 60.00 11.00
S61114.0 14.00 0.10 14.00 32.00 125.0 2 75.00 13.00
S61116.0 16.00 0.10 16.00 32.00 125.0 2 75.00 15.00
S61120.0 20.00 0.10 20.00 38.00 125.0 2 75.00 19.00
2-Flute Solid Carbide End Mill, Long Reach
Short cutting length and long reach 2-ute design provides high rigidity for milling and proling in hard to reach areas. S611 with high hook
geometry is designed for high performance machining. Bright polished nish prevents work piece material from sticking to the cutting edge.
Workpiece material group suitability and starting values for cutting speed (m/min). Letter code feed table can be found on page 22.
DCON MS tolerance h6; RE ±0.02 mm.
Product
37
NOF
3
DIN 6535HA
h9
DC

N1.1
638 G
N1.2
480 G
N1.3
321 G
N2.1
321 F
N2.2
288 F
N2.3
206 F
N3.1
336 F
N3.2
197 F
N3.3
101 F
N4.1
336 I
N4.2
130 I
DC DCON MS APMX OAL NOF
[mm] [mm] [mm] [mm]
S6143.0XD3 3.00 3.00 19.00 60.0 3
S6143.0XD6 3.00 6.00 19.00 75.0 3
S6144.0XD4 4.00 4.00 19.00 60.0 3
S6144.0XD6 4.00 6.00 19.00 75.0 3
S6145.0 5.00 6.00 19.00 75.0 3
S6146.0 6.00 6.00 31.00 75.0 3
S6148.0 8.00 8.00 41.00 100.0 3
S61410.0 10.00 10.00 50.00 100.0 3
S61412.0 12.00 12.00 50.00 100.0 3
S61414.0 14.00 14.00 57.00 125.0 3
S61416.0 16.00 16.00 57.00 125.0 3
3-Flute Solid Carbide End Mill, Long Series
Extra long cutting length and long reach 3-ute design provides high rigidity for milling and proling in hard to reach areas. S614 with high hook
geometry is designed for high performance machining. Bright nish prevents work piece material from sticking to the cutting edge.
Workpiece material group suitability and starting values for cutting speed (m/min). Letter code feed table can be found on page 22.
DCON MS tolerance h6.
Product
38
NOF
2
l
30°
DIN 6535HA
h9
DC

N1.1
709 N
N1.2
533 N
N1.3
357 N
N2.1
357 N
N2.2
320 N
N2.3
229 N
N3.1
373 N
N3.2
219 N
N3.3
112 N
N4.1
373 O
N4.2
144 O
DC RE DCON MS APMX OAL NOF LU DN
[mm] [mm] [mm] [mm] [mm] [mm] [mm]
S6291.0 1) 1.00 0.50 4.00 0.80 50.0 2 10.00 0.90
S6291.5 1) 1.50 0.75 4.00 1.20 50.0 2 12.00 1.40
S6292.0 1) 2.00 1.00 4.00 1.60 60.0 2 18.00 1.90
S6293.0 3.00 1.50 6.00 5.00 57.0 2 20.00 2.80
S6294.0 4.00 2.00 6.00 6.00 57.0 2 20.00 3.70
S6295.0 5.00 2.50 6.00 7.00 57.0 2 20.00 4.60
S6296.0 6.00 3.00 6.00 8.00 57.0 2 20.00 5.50
S6298.0 8.00 4.00 8.00 10.00 64.0 2 25.00 7.40
S62910.0 10.00 5.00 10.00 12.00 75.0 2 35.00 9.20
S62912.0 12.00 6.00 12.00 14.00 75.0 2 35.00 11.00
S62916.0 16.00 8.00 16.00 18.00 90.0 2 45.00 15.00
S62920.0 20.00 10.00 20.00 22.00 100.0 2 50.00 19.00
2-Flute Solid Carbide End Mill, Ball-Nosed
Extra short cutting length 2-ute design reduces vibrations and provides high rigidity. Ball nose geometry is designed for high performance
contouring of complex surfaces. Bright nish prevents work piece material from sticking to the cutting edge.
Workpiece material group suitability and starting values for cutting speed (m/min). Letter code feed table can be found on page 22.
DCON MS tolerance h6; RE +0/-0.02 mm.
Product
1) rake angle 11°
39
DIN 6535HA
h9
DC
S650
N1.1
780 O
N1.2
608 O
N1.3
393 O
N2.1
393 N
N2.2
352 N
N2.3
252 N
N3.1
410 N
N3.2
241 N
N3.3
123 N
N4.1
410 P
N4.2
158 P
DC DCON MS APMX OAL NOF
[mm] [mm] [mm] [mm]
S6501.0 1.00 4.00 3.00 40.0 3
S6501.5 1.50 4.00 4.50 40.0 3
S6502.0 2.00 4.00 6.50 40.0 3
S6502.5 2.50 4.00 6.50 40.0 3
S6503.0XD3 3.00 3.00 9.00 40.0 3
S6503.0XD6 3.00 6.00 9.00 50.0 3
S6504.0XD4 4.00 4.00 12.00 50.0 3
S6504.0XD6 4.00 6.00 12.00 50.0 3
S6505.0 5.00 6.00 15.00 50.0 3
S6506.0 6.00 6.00 16.00 50.0 3
S6508.0 8.00 8.00 20.00 64.0 3
S65010.0 10.00 10.00 22.00 70.0 3
S65012.0 12.00 12.00 25.00 75.0 3
S65014.0 14.00 14.00 32.00 90.0 3
S65016.0 16.00 16.00 32.00 90.0 3
S65020.0 1) 20.00 20.00 38.00 100.0 3
3-Flute Solid Carbide End Mill
Short cutting length 3-ute design provides high rigidity for milling and proling. S650 with high hook geometry is designed for high perfor-
mance machining. Bright nish prevents work piece material from sticking to the cutting edge.
Workpiece material group suitability and starting values for cutting speed (m/min). Letter code feed table can be found on page 22.
DCON MS tolerance h6.
Product
1) No dierential pitch
40
DIN 6535HA
h9
DC
S654
N1.1
709 O
N1.2
533 O
N1.3
357 O
N2.1
357 N
N2.2
320 N
N2.3
229 N
N3.1
373 N
N3.2
219 N
N3.3
112 N
N4.1
373 P
N4.2
144 P
DC RE DCON MS APMX OAL NOF LU DN
[mm] [mm] [mm] [mm] [mm] [mm] [mm]
S6546.0 6.00 0.10 6.00 13.00 75.0 3 40.00 5.50
S6548.0 8.00 0.10 8.00 20.00 75.0 3 40.00 7.40
S65410.0 10.00 0.10 10.00 22.00 100.0 3 60.00 9.20
S65412.0 12.00 0.12 12.00 26.00 100.0 3 60.00 11.00
S65416.0 16.00 0.16 16.00 32.00 125.0 3 75.00 15.00
S65420.0 20.00 0.20 20.00 40.00 150.0 3 100.00 19.00
3-Flute Solid Carbide Roughing End Mill, Long Reach
Short cutting length and long reach 3-ute roughing design provides high rigidity for milling and proling. S654 with NRA prole is designed for
high performance roughing. Bright nish prevents work piece material from sticking to the cutting edge.
Workpiece material group suitability and starting values for cutting speed (m/min). Letter code feed table can be found on page 22.
DCON MS tolerance h6; RE ±0.02 mm.
Product
41
NOF
4=
DIN 6535HA
h9
DC

N1.1
709 O
N1.2
533 O
N1.3
357 O
N2.1
357 N
N2.2
320 N
N2.3
229 N
N3.1
373 N
N3.2
219 N
N3.3
112 N
N4.1
373 P
N4.2
144 P
DC RE DCON MS APMX OAL NOF
[mm] [mm] [mm] [mm] [mm]
S6623.0XR0.3 3.00 0.30 6.00 9.00 57.0 4
S6624.0XR0.3 4.00 0.30 6.00 12.00 57.0 4
S6624.0XR0.5 4.00 0.50 6.00 12.00 57.0 4
S6625.0XR0.3 5.00 0.30 6.00 15.00 57.0 4
S6625.0XR0.5 5.00 0.50 6.00 15.00 57.0 4
S6626.0XR0.5 6.00 0.50 6.00 16.00 57.0 4
S6626.0XR1.0 6.00 1.00 6.00 16.00 57.0 4
S6626.0XR2.0 6.00 2.00 6.00 16.00 57.0 4
S6628.0XR0.5 8.00 0.50 8.00 20.00 64.0 4
S6628.0XR1.0 8.00 1.00 8.00 20.00 64.0 4
S6628.0XR2.0 8.00 2.00 8.00 20.00 64.0 4
S66210.0XR0.5 10.00 0.50 10.00 22.00 72.0 4
S66210.0XR1.0 10.00 1.00 10.00 22.00 72.0 4
S66210.0XR2.0 10.00 2.00 10.00 22.00 72.0 4
S66212.0XR1.0 12.00 1.00 12.00 26.00 83.0 4
S66212.0XR2.0 12.00 2.00 12.00 26.00 83.0 4
S66212.0XR2.5 12.00 2.50 12.00 26.00 83.0 4
S66212.0XR3.0 12.00 3.00 12.00 26.00 83.0 4
S66216.0XR1.0 16.00 1.00 16.00 32.00 92.0 4
S66216.0XR2.0 16.00 2.00 16.00 32.00 92.0 4
S66216.0XR3.0 16.00 3.00 16.00 32.00 92.0 4
S66216.0XR4.0 16.00 4.00 16.00 32.00 92.0 4
S66220.0XR2.0 20.00 2.00 20.00 38.00 104.0 4
S66220.0XR4.0 20.00 4.00 20.00 38.00 104.0 4
4-Flute Solid Carbide Corner Radius End Mill
Short cutting length 4-ute design with corner radius for prole milling where a llet radius is required. S662 with high hook geometry is desi-
gned for high performance machining. Bright nish prevents work piece material from sticking to the cutting edge.
Workpiece material group suitability and starting values for cutting speed (m/min). Letter code feed table can be found on page 22.
DCON MS tolerance h6; RE ±0.01 mm.
Product
44
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




45

 
220 650
 
a 





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





 
  
  


Insert
 
 
 








• 










 EN AW-2017A
46
P
M
K
N
S
GAMF
APMX
KAPR
GAMP
DC
LU
OAL
90°
DCON MS
DIN 1835A
LU
90°
OAL
DC
DIN 1835B
DCON MS
LF
TDZ
OAL
DCON MS
90°
DC
DCON MS
KWW
LF
90°
DC
DCCB
KWD
DC 40 – 140 mm
DC 160 – 175 mm
DC
DBC1
LF
90°
DCON MS
KWW
KWD
KAPR 90°
APMX 10.0 mm

DC
OAL
DCON MS
DCCB
DBC
LU
LF
TDZ
KWW
KWD
GAMF
GAMP
1
2
3
4
5
6
7
8
max.
kg
[mm] [mm] [mm] [mm] [mm] [mm] [mm] [mm] [mm] [°] [°]
25A2R034A25-STN16-C 25 170 25 – – 34 – – – – -18.5 -9.5 2 – 20000 ü0.54 GI340 C0382
32A2R034A32-STN16-C 32 195 32 – – 34 – – – – -16 -9.5 2 – 17500 ü1.05 GI340 C0382
25A2R080A25-STN16-C 25 170 25 – – 80 – – – – -18.5 -9.5 2 – 20000 ü0.48 GI340 C0382
32A2R080A32-STN16-C 32 195 32 – – 80 – – – – -16 -9.5 2 – 17500 ü0.96 GI340 C0382
32A3R034A32-STN16-C 32 195 32 – – 34 – – – – -16 -9.5 3 – 17500 ü1.04 GI340 C0382
35A3R034A32-STN16-C 32 195 32 – – 34 – – – – -16 -9.5 3 – 17000 ü1.07 GI340 C0382
25A2R042B25-STN16-C 25 55 25 – – 42 – – – – -18.5 -9.5 2 – 20000 ü0.30 GI340 C0382
32A3R042B32-STN16-C 32 110 32 – – 42 – – – – -16 -9.5 3 – 17500 ü0.52 GI340 C0382
40A4R050B32-STN16-C 40 120 32 – – 50 – – – – -16 -9.5 4 – 16000 ü0.67 GI340 C0382
25A2R033M12-STN16-C 25 55 12.5 – – 33 – M12 – – -18.5 -9.5 2 – 20000 ü0.08 GI340 C0382
32A2R043M16-STN16-C 32 66 17 – – 43 – M16 – – -16 -9.5 2 – 17500 ü0.18 GI340 C0382
32A3R043M16-STN16-C 32 66 17 – – 43 – M16 – – -16 -9.5 3 – 17500 ü0.17 GI340 C0382
40A3R043M16-STN16-C 40 66 17 – – 43 – M16 – – -16 -9.5 3 – 16000 ü0.20 GI340 C0382
40A4R043M16-STN16-C 40 66 17 – – 43 – M16 – – -16 -9.5 4 – 16000 ü0.21 GI340 C0382
40A03R-S90TN16-C 40 40 16 12.4 – – – – 8.4 5.6 -16 -9.5 4 – 16000 ü0.20 GI340 C0384
40A04R-S90TN16-C 40 40 16 12.4 – – – – 8.4 5.6 -16 -9.5 4 – 16000 ü0.20 GI340 C0384
50A04R-S90TN16-C 50 40 22 18.1 – – – – 10.4 6.3 -16 -9.5 4 ü14000 ü0.34 GI340 C0386
50A05R-S90TN16-C 50 40 22 18.1 – – – – 10.4 6.3 -16 -9.5 5 ü14000 ü0.32 GI340 C0386
63A04R- S90TN16-C 63 40 22 18.1 – – – – 10.4 6.3 -16 -9.5 4 ü12500 ü0.47 GI340 C0386
63A06R- S90TN16-C 63 40 22 18.1 – – – – 10.4 6.3 -16 -9.5 6 ü12500 ü0.48 GI340 C0386
80A05R- S90TN16-C 80 50 27 22.1 – – – – 12.4 7 -16 -9.5 5 ü11000 ü1.02 GI340 C0388
80A07R- S90TN16-C 80 50 27 22.1 – – – – 12.4 7 -16 -9.5 7 ü11000 ü1.05 GI340 C0388
100A06R- S90TN16-C 100 50 32 45.1 – – – – 14.4 8 -16 -9.5 6 ü10000 ü1.79 GI340 C0390
100A08R- S90TN16-C 100 50 32 45.1 – – – – 14.4 8 -16 -9.5 8 ü10000 ü1.66 GI340 C0390
115A06R- S90TN16-C 115 50 32 45.1 – – – – 14.4 8 -16 -9.5 6 ü9500 ü2.04 GI340 C0390
125A07R- S90TN16-C 125 63 40 56.1 – – – – 16.4 9 -16 -9.5 7 ü9000 ü3.05 GI340 C0390
125A09R- S90TN16-C 125 63 40 56.1 – – – – 16.4 9 -16 -9.5 9 ü9000 ü3.14 GI340 C0390
hm
0.03 - 0.15
hm0.03 - 0.13
ECON TN Square Shoulder End Mill for TNGX 16 Insert with Coolant Through
90° end-, or shell mill for double sided TNGX 16 inserts with 6 cutting edges APMX of 10mm. Suited for wide range of applications. Available in
cylindrical, weldon, modular and arbor mounting, in Ø25 up to 175mm. Available with dierential tooth setting. Body treated for longer tool life.
Product
47
DC
OAL
DCON MS
DCCB
DBC
LU
LF
TDZ
KWW
KWD
GAMF
GAMP
1
2
3
4
5
6
7
8
max.
kg
[mm] [mm] [mm] [mm] [mm] [mm] [mm] [mm] [mm] [°] [°]
140A08R-S90TN16-C 140 63 40 56.1 – – – – 16.4 9 -16 -9.5 8 ü8500 ü3.69 GI340 C0390
160C10R-S90TN16-C 160 63 40 – 66.7 – – – 16.4 9.2 -16 -9.5 10 ü8000 ü5.16 GI340 C0394
175C10R-S90TN16-C 175 63 40 – 66.7 – – – 16.4 9.2 -16 -9.5 10 ü7500 ü5.99 GI340 C0394
GI340 TNGX1606..
Nm
C0382 US 44010-T15P 3.5 M 4 10 – – Flag T15P – – –
C0384 US 44010-T15P 3.5 M 4 10 D-T08P/T15P FG-15 – HS 90835 – –
C0386 US 44010-T15P 3.5 M 4 10 D-T08P/T15P FG-15 – HS 1030C – –
C0388 US 44010-T15P 3.5 M 4 10 D-T08P/T15P FG-15 – HS 1230C – –
C0390 US 44010-T15P 3.5 M 4 10 D-T08P/T15P FG-15 – – – –
C0394 US 44010-T15P 3.5 M 4 10 D-T08P/T15P FG-15 – HS 1240C HSD 0825C CAC 160C
IC D1 L S
[mm] [mm] [mm] [mm]
1606 9.525 4.4 16.5 6.58
SL
60°
D1
IC
RE

RE P M K N S H
vc fap vc fap vc fap vc fap vc fap vc fap
[mm] [m/min] [mm/tooth] [mm] [m/min] [mm/tooth] [mm] [m/min] [mm/tooth] [mm] [m/min] [mm/tooth] [mm] [m/min] [mm/tooth] [mm] [m/min] [mm/tooth] [mm]
36°
19°
0,09
S
TNGX 160604SR-F
M8330
0.40
205
0.10
3.0
120
0.09
3.0
190
0.10
3.0
–
–
–
–
–
–
–
–
–
M8340
0.40
190
0.10
3.0
110
0.09
3.0
180
0.10
3.0
–
–
–
–
–
–
–
–
–
TNGX 160608SR-F
8215
0.80
250
0.10
3.0
150
0.09
3.0
235
0.10
3.0
–
–
–
–
–
–
–
–
–
M6330
0.80
215
0.10
3.0
150
0.09
3.0
–
–
–
–
–
–
–
–
–
–
–
–
M8310
0.80
280
0.10
3.0
140
0.09
3.0
265
0.10
3.0
–
–
–
–
–
–
–
–
–
M8330
0.80
245
0.10
3.0
145
0.09
3.0
230
0.10
3.0
–
–
–
–
–
–
–
–
–
M8340
0.80
225
0.10
3.0
135
0.09
3.0
210
0.10
3.0
–
–
–
–
–
–
–
–
–
33°
19°
0,141
S
TNGX 160604SR-M
8215
0.40
190
0.15
3.0
110
0.14
3.0
180
0.15
3.0
–
–
–
45
0.11
2.4
–
–
–
M6330
0.40
165
0.15
3.0
115
0.14
3.0
–
–
–
–
–
–
45
0.11
2.4
–
–
–
M8310
0.40
205
0.15
3.0
100
0.14
3.0
190
0.15
3.0
–
–
–
–
–
–
–
–
–
M8330
0.40
190
0.15
3.0
110
0.14
3.0
180
0.15
3.0
–
–
–
45
0.11
2.4
–
–
–
M8340
0.40
170
0.15
3.0
100
0.14
3.0
160
0.15
3.0
–
–
–
40
0.11
2.4
–
–
–
Product
Product
Suitability and starting values for cutting speed (vc), feed (f) and depth of cut (ap). Refer to our Machining Calculator app for further calculations.
F geometry with highly positive design for light machining.
M geometry with positive design for light to medium machining.
48
RE P M K N S H
vc fap vc fap vc fap vc fap vc fap vc fap
[mm] [m/min] [mm/tooth] [mm] [m/min] [mm/tooth] [mm] [m/min] [mm/tooth] [mm] [m/min] [mm/tooth] [mm] [m/min] [mm/tooth] [mm] [m/min] [mm/tooth] [mm]
33°
19°
0,141
S
TNGX 160608SR-M
8215
0.80
230
0.15
3.0
135
0.14
3.0
215
0.15
3.0
–
–
–
55
0.11
2.4
–
–
–
M6330
0.80
195
0.15
3.0
135
0.14
3.0
–
–
–
–
–
–
55
0.11
2.4
–
–
–
M8310
0.80
245
0.15
3.0
120
0.14
3.0
230
0.15
3.0
–
–
–
–
–
–
–
–
–
M8330
0.80
225
0.15
3.0
135
0.14
3.0
210
0.15
3.0
–
–
–
55
0.11
2.4
–
–
–
M8340
0.80
205
0.15
3.0
120
0.14
3.0
190
0.15
3.0
–
–
–
50
0.11
2.4
–
–
–
M8345
0.80
160
0.15
3.0
95
0.14
3.0
–
–
–
–
–
–
40
0.11
2.4
–
–
–
M9325
0.80
285
0.15
3.0
–
–
–
270
0.15
3.0
–
–
–
–
–
–
–
–
–
M9340
0.80
260
0.15
3.0
155
0.14
3.0
–
–
–
–
–
–
65
0.11
2.4
–
–
–
TNGX 160612SR-M
M8330
1.20
235
0.15
3.0
140
0.14
3.0
220
0.15
3.0
–
–
–
55
0.11
2.4
–
–
–
M8340
1.20
215
0.15
3.0
125
0.14
3.0
200
0.15
3.0
–
–
–
50
0.11
2.4
–
–
–
TNGX 160616SR-M
M8310
1.60
275
0.15
3.0
140
0.14
3.0
260
0.15
3.0
–
–
–
–
–
–
–
–
–
M8330
1.60
250
0.15
3.0
150
0.14
3.0
235
0.15
3.0
–
–
–
60
0.11
2.4
–
–
–
M8340
1.60
225
0.15
3.0
135
0.14
3.0
210
0.15
3.0
–
–
–
55
0.11
2.4
–
–
–
IC D1 L S
[mm] [mm] [mm] [mm]
1606 9.525 4.4 16.5 6.58
SL
60°
D1
IC
RE

RE P M K N S H
vc fap vc fap vc fap vc fap vc fap vc fap
[mm] [m/min] [mm/tooth] [mm] [m/min] [mm/tooth] [mm] [m/min] [mm/tooth] [mm] [m/min] [mm/tooth] [mm] [m/min] [mm/tooth] [mm] [m/min] [mm/tooth] [mm]
38°
F
TNGX 160604FR-FA
HF7
0.40
–
–
–
–
–
–
–
–
–
255
0.14
2.0
–
–
–
–
–
–
M0315
0.40
–
–
–
–
–
–
–
–
–
585
0.14
2.0
–
–
–
–
–
–
TNGX 160608FR-FA
HF7
0.80
–
–
–
–
–
–
–
–
–
300
0.14
2.0
–
–
–
–
–
–
M0315
0.80
–
–
–
–
–
–
–
–
–
690
0.14
2.0
–
–
–
–
–
–
Product
Suitability and starting values for cutting speed (vc), feed (f) and depth of cut (ap). Refer to our Machining Calculator app for further calculations.
M geometry with positive design for light to medium machining.
Product
Suitability and starting values for cutting speed (vc), feed (f) and depth of cut (ap). Refer to our Machining Calculator app for further calculations.
FA geometry with highly positive design for ne nish to medium machining.
49
AP
3,0 4,5 6,0
1
f
0,18 0,14 0,10
TNGX 16-F TNGX 16-M TNGX 16-FA
RE 0,4 0,8 0,4 0,8 1,2 1,6 0,4 0,8
BS
2,10 1,9 2,10 1,90 1,73 1,14 2,10 1,90
DC
dmin = DC * d = 1,25 DC d = 1,5 DC d = 1,75 DC d ≥2 DC
dmin
s
max
APMX EFW
dmin
s
max
APMX EFW
dmin
s
max
APMX EFW
dmin
s
max
APMX EFW
dmin
s
max
APMX EFW
25 25 0,14 1,3 31 0,22 2,2 38 0,33 3,0 44 0,60 4,0 50 0,70 5,0
32 32 0,16 1,5 40 0,33 2,8 48 0,44 4,0 56 0,70 5,0 64 0,90 6,5
40 40 0,22 2,0 50 0,38 3,5 60 0,55 5,0 70 0,90 6,5 80 1,15 8,0
50 50 0,27 2,5 63 0,50 4,5 75 0,70 6,5 88 1,00 8,0 100 1,40 10,0
63 63 0,33 3,2 80 0,60 5,5 95 0,90 8,0 110 1,45 10,0 125 1,80 12,5
80 80 0,55 4,0 100 1,00 7,0 120 1,45 10,0 140 2,15 13,0 160 2,60 16,0
100 100 0,70 5,0 125 1,20 9,0 150 1,80 12,5 175 2,70 16,5 200 3,30 20,0
115 115 0,85 6,0 145 1,50 10,0 175 1,90 14,5 200 2,80 19,0 230 3,80 23,0
125 125 0,90 6,5 155 1,60 11,0 190 2,30 15,5 220 3,10 20,0 250 4,10 25,0
140 140 1,00 7,0 175 1,80 12,5 210 2,60 17,5 245 3,70 23,0 280 4,60 28,0
160 160 1,20 8,0 200 2,00 14,0 240 2,90 20,0 280 4,30 26,0 320 5,30 32,0
175 175 1,30 8,8 220 2,20 15,5 265 3,20 22,0 305 4,70 29,0 350 5,80 35,0
APMX EFW
smax


hole

hole
hole
hole
hole
hole
d
50
TNGX 16-F
AP
40,0
25,0
16,0
10,0
6,3
4,0
2,5
1,6
1,0
0,63
0,4
0
0,06
0,10
0,16
0,25
0,4
0,63
1,0
1,6
2,5
4,0
TNGX160604SRF
TNGX160608SRF
f
P M K N S H
f
0,05  0,15
AP
0,2  10,0
36°
19°
0,09
?
TNGX 160604SRF, TNGX 160608SRF
TNGX 16-FA
AP
40,0
25,0
16,0
10,0
6,3
4,0
2,5
1,6
1,0
0,63
0,4
0
0,06
0,10
0,16
0,25
0,4
0,63
1,0
1,6
2,5
4,0
TNGX160604FRFA
TNGX160608FRFA
f
P M K N S H
f
0,03  0,30
AP
0,2  9,0
38°
?
TNGX 160604FRFA, TNGX 160608FRFA
TNGX 16-M
AP
40,0
25,0
16,0
10,0
6,3
4,0
2,5
1,6
1,0
0,63
0,4
0
0,06
0,10
0,16
0,25
0,4
0,63
1,0
1,6
2,5
4,0
TNGX160604SRM
TNGX160608SRM
TNGX160612SRM
TNGX160616SRM
f
P M K N S H
f
0,12  0,28
AP 0,3  10,0
33°
19°
0,14
?
TNGX160604SRM, TNGX160608SRM,
TNGX160612SRM, TNGX160616SRM

52
53



32
24
20
16
12
10
012x12 16x16 20x20 25x25



































NEW
NEW
NEW
NEW
NEW
NEW
NEW
NEW
NEW
NEW
NEW
NEW
NEW
NEW
NEW
NEW
NEW
NEW
NEW
NEW
NEW
NEW
NEW
NEW
NEW
NEW
NEW
NEW
NEW
NEW
NEW
NEW
NEW
NEW
NEW
NEW
NEW
NEW
 










 
 

• Insert GL4






•





• 

Overhang
Shank


54
 





 













55

v 100
 
a

v 100
 
a

v 120
 
a

v 120
 
a
3,5
3,0
2,5
2,0
1,5
1,0
0,5
0
0,1
0,2
0,3
0,4
0,5
0,6
f
a
p


3,5
3,0
2,5
2,0
1,5
1,0
0,5
0
0,1
0,2
0,3
0,4
0,5
0,6
3,5
3,0
2,5
2,0
1,5
1,0
0,5
0
0,1
0,2
0,3
0,4
0,5
0,6
3,5
3,0
2,5
2,0
1,5
1,0
0,5
0
0,1
0,2
0,3
0,4
0,5
0,6
f
f
f
a
p
a
p
a
p



























 
 
 
 
 

GL5-D500M08-GM; G8330
 

 
 
 
 
 
 
 
 
 
; G8330
 

 
 
 
 
 
 
 
 
 
; G8330
 

 
 
 
 
 
 
 
 
 
; G8330
 

 
 
 
 
56
CW CWTOLL CWTOLU INSL
[mm] [mm] [mm] [mm]
200 2 -0.05 0.05 25
300 3 -0.05 0.05 25
400 4 -0.05 0.05 25
500 5 -0.05 0.05 25
600 6 -0.05 0.05 25
INSL
GM
CW
RE

RE P M K N S H
vc fap vc fap vc fap vc fap vc fap vc fap
[mm] [m/min] [mm/rev] [mm] [m/min] [mm/rev] [mm] [m/min] [mm/rev] [mm] [m/min] [mm/rev] [mm] [m/min] [mm/rev] [mm] [m/min] [mm/rev] [mm]
20°
E
GL2-D200M02-GM
G8330
0.20
190
0.10
0.8
110
0.09
0.8
180
0.10
0.8
–
–
–
45
0.08
0.6
–
–
–
T7325
0.20
220
0.10
0.8
170
0.09
0.8
–
–
–
–
–
–
70
0.08
0.6
–
–
–
GL3-D300M02-GM
G8330
0.20
150
0.20
1.0
90
0.18
1.0
140
0.20
1.0
–
–
–
35
0.14
0.8
–
–
–
T7325
0.20
175
0.20
1.0
135
0.18
1.0
–
–
–
–
–
–
55
0.14
0.8
–
–
–
GL3-D300M04-GM
G8330
0.40
160
0.20
1.0
95
0.18
1.0
150
0.20
1.0
–
–
–
40
0.14
0.8
–
–
–
T7325
0.40
185
0.20
1.0
140
0.18
1.0
–
–
–
–
–
–
60
0.14
0.8
–
–
–
GL4-D400M04-GM
G8330
0.40
150
0.25
1.2
90
0.23
1.2
140
0.25
1.2
–
–
–
35
0.18
1.0
–
–
–
T7325
0.40
170
0.25
1.2
130
0.23
1.2
–
–
–
–
–
–
55
0.18
1.0
–
–
–
GL4-D400M08-GM
G8330
0.80
180
0.25
1.2
105
0.23
1.2
170
0.25
1.2
–
–
–
45
0.18
1.0
–
–
–
T7325
0.80
200
0.25
1.2
155
0.23
1.2
–
–
–
–
–
–
65
0.18
1.0
–
–
–
GL5-D500M08-GM
G8330
0.80
170
0.30
1.2
100
0.27
1.2
160
0.30
1.2
–
–
–
40
0.21
1.0
–
–
–
T7325
0.80
190
0.30
1.2
145
0.27
1.2
–
–
–
–
–
–
60
0.21
1.0
–
–
–
GL6-D600M08-GM
G8330
0.80
170
0.30
1.2
100
0.27
1.2
160
0.30
1.2
–
–
–
40
0.21
1.0
–
–
–
T7325
0.80
190
0.30
1.2
145
0.27
1.2
–
–
–
–
–
–
60
0.21
1.0
–
–
–
Product
Suitability and starting values for cutting speed (vc), feed (f) and depth of cut (ap). Refer to our Machining Calculator app for further calculations.
GM geometry for grooving and longitudinal turning, continuous to interrupted cuts.
57
CW CWTOLL CWTOLU INSL
[mm] [mm] [mm] [mm]
200 2 -0.05 0.05 25
300 3 -0.05 0.05 25
400 4 -0.05 0.05 25
500 5 -0.05 0.05 26
600 6 -0.05 0.05 26
INSL
MM
CW
RE

RE P M K N S H
vc fap vc fap vc fap vc fap vc fap vc fap
[mm] [m/min] [mm/rev] [mm] [m/min] [mm/rev] [mm] [m/min] [mm/rev] [mm] [m/min] [mm/rev] [mm] [m/min] [mm/rev] [mm] [m/min] [mm/rev] [mm]
1
6°
4°
S
GL2-D200MMO-MM
G8330
1.00
250
0.10
1.0
150
0.09
1.0
235
0.10
1.0
–
–
–
60
0.08
0.8
–
–
–
T7325
1.00
285
0.10
1.0
220
0.09
1.0
–
–
–
–
–
–
90
0.08
0.8
–
–
–
GL3-D300MMO-MM
G8330
1.50
210
0.20
1.2
125
0.18
1.2
195
0.20
1.2
–
–
–
50
0.14
1.0
–
–
–
T7325
1.50
240
0.20
1.2
185
0.18
1.2
–
–
–
–
–
–
75
0.14
1.0
–
–
–
GL4-D400MMO-MM
G8330
2.00
220
0.20
1.2
130
0.18
1.2
205
0.20
1.2
–
–
–
55
0.14
1.0
–
–
–
T7325
2.00
250
0.20
1.2
195
0.18
1.2
–
–
–
–
–
–
80
0.14
1.0
–
–
–
GL5-D500MMO-MM
G8330
2.50
205
0.25
1.2
120
0.23
1.2
190
0.25
1.2
–
–
–
50
0.18
1.0
–
–
–
T7325
2.50
235
0.25
1.2
180
0.23
1.2
–
–
–
–
–
–
75
0.18
1.0
–
–
–
GL6-D600MMO-MM
G8330
3.00
195
0.30
1.2
115
0.27
1.2
185
0.30
1.2
–
–
–
45
0.21
1.0
–
–
–
T7325
3.00
220
0.30
1.2
170
0.27
1.2
–
–
–
–
–
–
70
0.21
1.0
–
–
–
Product
Suitability and starting values for cutting speed (vc), feed (f) and depth of cut (ap). Refer to our Machining Calculator app for further calculations.
MM geometry with full radius shape for copy proling and longitudinal turning, continuous to interrupted cuts.
58
P
M
K
N
S
H
HBH
H
B
CW HF
CUTDIA
CDX
LF

G
HF
HBH
H
B
LF
CW
CDX
CUTDIA
kg
[mm] [mm] [mm] [mm] [mm] [mm] [mm] [mm]
GL2-S2020KFR-20-80
20 – 20 20 125 2 20 80 0.38 GI334 GL11
GL2-S2020KFR-24-80
20 5 20 20 125 2 24 80 0.36 GI334 GL11
GL2-S2525MFR-20-80
25 – 25 25 150 2 20 80 0.68 GI334 GL11
GL2-S2525MFR-24-80
25 – 25 25 150 2 24 80 0.64 GI334 GL11
GL3-S2020KFR-20-80
20 – 20 20 125 3 20 80 0.38 GI335 GL11
GL3-S2020KFR-24-80
20 5 20 20 125 3 24 80 0.36 GI335 GL11
GL3-S2525MFR-20-80
25 – 25 25 150 3 20 80 0.68 GI335 GL11
GL3-S2525MFR-24-80
25 – 25 25 150 3 24 80 0.65 GI335 GL11
GL3-S2525PFR-32-80
25 5 25 25 170 3 32 80 0.72 GI335 GL11
GL4-S2020KFR-20-80
20 – 20 20 125 4 20 80 0.38 GI336 GL11
GL4-S2020KFR-24-80
20 5 20 20 125 4 24 80 0.37 GI336 GL11
GL4-S2525MFR-20-80
25 – 25 25 150 4 20 80 0.68 GI336 GL11
GL4-S2525MFR-24-80
25 – 25 25 150 4 24 80 0.65 GI336 GL11
GL4-S2525PFR-32-80
25 5 25 25 170 4 32 80 0.78 GI336 GL11
GL5-S2020KFR-20-80
20 – 20 20 125 5 20 80 0.38 GI337 GL11
GL5-S2525MFR-20-80
25 – 25 25 150 5 20 80 0.68 GI337 GL11
GL5-S2525PFR-32-100
25 5 25 25 170 5 32 100 0.75 GI337 GL11
GL6-S2020KFR-20-80
20 – 20 20 125 6 20 80 0.39 GI338 GL11
GL6-S2525MFR-20-80
25 – 25 25 150 6 20 80 0.68 GI338 GL11
GL6-S2525PFR-32-100
25 5 25 25 170 6 32 100 0.75 GI338 GL11
GL2-S2020KFL-20-80
20 – 20 20 125 2 20 80 0.38 GI334 GL11
GL2-S2020KFL-24-80
20 5 20 20 125 2 24 80 0.36 GI334 GL11
GL2-S2525MFL-20-80
25 – 25 25 150 2 20 80 0.70 GI334 GL11
GL2-S2525MFL-24-80
25 – 25 25 150 2 24 80 0.64 GI334 GL11
GL3-S2020KFL-20-80
20 – 20 20 125 3 20 80 0.38 GI335 GL11
GL3-S2020KFL-24-80
20 5 20 20 125 3 24 80 0.36 GI335 GL11
GL3-S2525MFL-20-80
25 – 25 25 150 3 20 80 0.68 GI335 GL11
External V-Groove Top Clamp Grooving or Parting tool for GL Inserts
External R/L handed radial tool holder for grooving with double sided GL. 2, 3, 4, 5, or 6 style inserts. Suited for radial grooving and parting-o
applications up to 32mm depth of cut. Available in shank size 2020 or 2525mm. Reinforced body design for longer tool life and low vibrations.
Product
59
HF
HBH
H
B
LF
CW
CDX
CUTDIA
kg
[mm] [mm] [mm] [mm] [mm] [mm] [mm] [mm]
GL3-S2525MFL-24-80
25 – 25 25 150 3 24 80 0.65 GI335 GL11
GL3-S2525PFL-32-80
25 5 25 25 170 3 32 80 0.78 GI335 GL11
GL4-S2020KFL-20-80
20 – 20 20 125 4 20 80 0.38 GI336 GL11
GL4-S2020KFL-24-80
20 5 20 20 125 4 24 80 0.37 GI336 GL11
GL4-S2525MFL-20-80
25 – 25 25 150 4 20 80 0.68 GI336 GL11
GL4-S2525MFL-24-80
25 – 25 25 150 4 24 80 0.65 GI336 GL11
GL4-S2525PFL-32-80
25 5 25 25 170 4 32 80 0.72 GI336 GL11
GL5-S2020KFL-20-80
20 – 20 20 125 5 20 80 0.38 GI337 GL11
GL5-S2525MFL-20-80
25 – 25 25 150 5 20 80 0.71 GI337 GL11
GL5-S2525PFL-32-100
25 5 25 25 170 5 32 100 0.75 GI337 GL11
GL6-S2020KFL-20-80
20 – 20 20 125 6 20 80 0.39 GI338 GL11
GL6-S2525MFL-20-80
25 – 25 25 150 6 20 80 0.71 GI338 GL11
GL6-S2525PFL-32-100
25 5 25 25 170 6 32 100 0.75 GI338 GL11
GI334 GL2..
GI335 GL3..
GI336 GL4..
GI337 GL5..
GI338 GL6..
Nm
GL11 US 5018-T20P 5.0 M 5 18.2 LK T20P
Product
60
P
M
K
N
S
H
H
B
HF
CDX
LF
CUTDIA
CW

G
HF
H
B
LF
CW
CDX
CUTDIA
kg
[mm] [mm] [mm] [mm] [mm] [mm] [mm]
GL2-S2020KFR-10
20 20 20 125 2 10 20 0.38 GI334 GL11
GL2-S2525MFR-10
25 25 25 150 2 10 20 0.69 GI334 GL11
GL3-S2020KFR-10
20 20 20 125 3 10 20 0.36 GI335 GL11
GL3-S2525MFR-10
25 25 25 150 3 10 20 0.69 GI335 GL11
GL4-S2020KFR-12
20 20 20 125 4 12 24 0.37 GI336 GL11
GL4-S2525MFR-12
25 25 25 150 4 12 24 0.69 GI336 GL11
GL5-S2020KFR-12
20 20 20 125 5 12 24 0.36 GI337 GL11
GL5-S2525MFR-12
25 25 25 150 5 12 24 0.70 GI337 GL11
GL6-S2020KFR-12
20 20 20 125 6 12 24 0.36 GI338 GL11
GL6-S2525MFR-12
25 25 25 150 6 12 24 0.68 GI338 GL11
GL2-S2020KFL-10
20 20 20 125 2 10 20 0.37 GI334 GL11
GL2-S2525MFL-10
25 25 25 150 2 10 20 0.70 GI334 GL11
GL3-S2020KFL-10
20 20 20 125 3 10 20 0.36 GI335 GL11
GL3-S2525MFL-10
25 25 25 150 3 10 20 0.70 GI335 GL11
GL4-S2020KFL-12
20 20 20 125 4 12 24 0.37 GI336 GL11
GL4-S2525MFL-12
25 25 25 150 4 12 24 0.69 GI336 GL11
GL5-S2020KFL-12
20 20 20 125 5 12 24 0.36 GI337 GL11
GL5-S2525MFL-12
25 25 25 150 5 12 24 0.69 GI337 GL11
GL6-S2020KFL-12
20 20 20 125 6 12 24 0.36 GI338 GL11
GL6-S2525MFL-12
25 25 25 150 6 12 24 0.68 GI338 GL11
GI334 GL2..
GI335 GL3..
GI336 GL4..
GI337 GL5..
GI338 GL6..
Nm
GL11 US 5018-T20P 5.0 M 5 18.2 LK T20P
External V-Groove Top Clamp Grooving or Turning tool for GL Inserts
External R/L handed radial tool holder for grooving with double sided GL. 2, 3, 4, 5, or 6 style inserts. Suited for radial grooving, longitudinal
turning and proling applications with 12mm max. depth of cut. Available in shank size 2020 or 2525mm. Body treated for longer tool life.
Product
61
P
M
K
N
S
H
CUTDIA
HBH
HF
H
CW
CDX
LF
B

G
HF
HBH
H
B
LF
CW
CDX
CUTDIA
kg
[mm] [mm] [mm] [mm] [mm] [mm] [mm] [mm]
GL2-S1212HFR-12-40
12 3 12 12 100 2 12 40 0.11 GI334 GL13
GL2-S1616KFR-16-45
16 3 16 16 125 2 16 45 0.23 GI334 GL12
GL3-S1212HFR-12-40
12 3 12 12 100 3 12 40 0.11 GI335 GL13
GL3-S1616KFR-16-45
16 3 16 16 125 3 16 45 0.23 GI335 GL12
GL4-S1616KFR-16-45
16 4 16 16 125 4 16 45 0.26 GI336 GL12
GL2-S1212HFL-12-40
12 3 12 12 100 2 12 40 0.11 GI334 GL13
GL2-S1616KFL-16-45
16 3 16 16 125 2 16 45 0.23 GI334 GL12
GL3-S1212HFL-12-40
12 3 12 12 100 3 12 40 0.11 GI335 GL13
GL3-S1616KFL-16-45
16 3 16 16 125 3 16 45 0.23 GI335 GL12
GL4-S1616KFL-16-45
16 4 16 16 125 4 16 45 0.24 GI336 GL12
GI334 GL2..
GI335 GL3..
GI336 GL4..
Nm
GL12 HS 0516 5.0 M 5 16 HXK 4
GL13 HS 0412 5.0 M 4 12 HXK 3
External Grooving or Parting tool for GL Inserts for Sliding head machines
External R/L handed radial tool holder for sliding head machines (small part machining) GL. 2, 3, 4 pocket widths. Suited for radial grooving,
proling and parting-o applications with 16mm max. depth of cut. Available in shank size 1212 or 1616. Reinforced body design for longer tool
life and low vibrations, easy acess clamping.
Product
62
6 7
4
85


4

5
G
8

6

7

– –
CW




CW
 
 
 
400 
500 
600 

06 6
 12


LR
PSIRL PSIRR

REL
 
 
04 
08 
RE
LR
REL
RER
RE

 
[
[


 
  


S

G



ROUND
GEOMETRY
63

6
7

4
8

5


R L
CUTDIA
DAXX
DAXIN

S
4

5
8

6
7




– – –
0°
90°
B H

H
100
K125
150
170

G0
90
LF
[


 -
 - 
 -
 
  


S

  


  


64
PSF
průměr
overhang
height
width
DWX
CDX
H
B
CDX
GLSF(RL) EXT-S
40
12
12
12
GLSF(RL) EXT-S
45
16
16
16
GLSF(RL) EXT
80
20
20
20
GLSF(RL) EXT
80
20
25
25
GLSF(RL) EXT
80
32
25
25
GLSF(RL) EXT
80
24
20
20
GLSF(RL) EXT
80
24
25
25
GLSF(RL) EXT
100
32
25
25
DWX
0
5
10
15
20
25
30
35
050 100 150 200 250 300 350 400 450 500
0
2
4
6
8
10
12
14
16
18
0 50 100 150 200 250 300 350 400 450 500
PSF
průměr
overhang
height
width
DWX
CDX
H
B
CDX
GLSF(RL) EXT-S
40
12
12
12
GLSF(RL) EXT-S
45
16
16
16
GLSF(RL) EXT
80
20
20
20
GLSF(RL) EXT
80
20
25
25
GLSF(RL) EXT
80
32
25
25
GLSF(RL) EXT
80
24
20
20
GLSF(RL) EXT
80
24
25
25
GLSF(RL) EXT
100
32
25
25
DWX
0
5
10
15
20
25
30
35
050 100 150 200 250 300 350 400 450 500
0
2
4
6
8
10
12
14
16
18
0 50 100 150 200 250 300 350 400 450 500
GL-2525-32-80
GL-1212-12-40
GL-2525-32-100 GL-2525-20-80 GL-2020-20-80GL-2525-24-80
GL-1616-16-45
GL-2020-24-80






65
CD2
CD1
fD1
f
D2

67
T8330 T8345
T8430
T8315
 T8330
v 170 170
 
a 
T 
0
5
10
15
20
25



T8330























 
 
 
 

 


 
 


T8330










68

CCGT 060202EL-SI
CCGT 060202ER-SI
CCGT 060204EL-SI
CCGT 060204ER-SI
CCGT 09T304EL-SI
CCGT 09T304ER-SI
CCGT 120408EL-SI
CCGT 120408ER-SI
CCMT 060202E-FF
CCMT 060202E-FF2
CCMT 060202E-FM
CCMT 060202E-NF2
CCMT 060202E-UR
CCMT 060204E-FF
CCMT 060204E-FF2
CCMT 060204E-FM
CCMT 060204E-NF2
CCMT 060204E-UR
CCMT 060204W-FM
CCMT 060208E-FM
CCMT 060208E-UR
CCMT 080302E-FF2
CCMT 080304E-FF2
CCMT 080304E-FM2
CCMT 080308E-FF2
CCMT 080308E-FM2
CCMT 09T302E-FM
CCMT 09T302E-UR
CCMT 09T304E-FF
CCMT 09T304E-FF2
CCMT 09T304E-FM
CCMT 09T304E-FM2
CCMT 09T304E-NF2
CCMT 09T304E-RM
CCMT 09T304E-UR
CCMT 09T304W-FM
CCMT 09T308E-FF2
CCMT 09T308E-FM
CCMT 09T308E-FM2
CCMT 09T308E-NF2
CCMT 09T308E-RM
CCMT 09T308E-UR
CCMT 09T308W-FM
CCMT 120404E-FM
CCMT 120404E-UR
CCMT 120408E-FM
CCMT 120408E-FM2
CCMT 120408E-RM
CCMT 120408E-UR
CCMT 120412E-FM
CCMT 120412E-RM
CCMT 120412E-UR
CNGG 120402E-SF
CNMG 090304E-FM
CNMG 090304E-NF
CNMG 090308E-FM
CNMG 090308E-NF
CNMG 120404E-FM
CNMG 120404EL-SI
CNMG 120404E-NF
CNMG 120404E-NM
CNMG 120404E-NMR
CNMG 120404ER-SI
CNMG 120404E-SF
CNMG 120404E-SM
CNMG 120408E-FM
CNMG 120408EL-SI
CNMG 120408E-M
CNMG 120408E-NF
CNMG 120408E-NM
CNMG 120408E-NMR
CNMG 120408E-RM
CNMG 120408ER-SI
CNMG 120408E-SF
CNMG 120408E-SM
CNMG 120412EL-SI
CNMG 120412E-NF
CNMG 120412E-NM
CNMG 120412E-NMR
CNMG 120412E-RM
CNMG 120412ER-SI
CNMG 120412E-SF
CNMG 120412E-SM
CNMG 120416E-RM
CNMG 160608E-NM
CNMG 160608E-RM
CNMG 160608E-SM
CNMG 160612E-NMR
CNMG 160612E-RM
CNMG 160616E-NMR
CNMG 190612E-NM
CNMG 190612E-NMR
CNMG 190612E-RM
CNMM 120408E-NR
CNMM 120408E-NR2
CNMM 120408E-OR
CNMM 120412E-NR
CNMM 120412E-NR2
CNMM 160608E-NR2
CNMM 160612E-NR2
CNMM 160612E-OR
CNMM 190612E-NR2
CNMM 190612E-OR
CNMM 190616E-NR2
CNMM 190616E-OR
CNMM 250924E-NR2
CNMM 250924E-OR
CNMM 250924S-923
DCGT 11T302E-FF2
DCGT 11T304EL-SI
DCGT 11T304ER-SI
DCGT 11T308EL-SI
DCGT 11T308ER-SI
DCMT 070202E-FF2
DCMT 070202E-FM
DCMT 070202E-UR
DCMT 070204E-FF2
DCMT 070204E-FM
DCMT 070204E-FM2
DCMT 070204E-UR
DCMT 070208E-FF2
DCMT 11T302E-FF
DCMT 11T302E-FM
DCMT 11T302E-UR
DCMT 11T304E-FF
DCMT 11T304E-FF2
DCMT 11T304E-FM
DCMT 11T304E-FM2
DCMT 11T304E-RM
DCMT 11T304E-UR
DCMT 11T308E-FF
DCMT 11T308E-FF2
DCMT 11T308E-FM
DCMT 11T308E-FM2
DCMT 11T308E-RM
DCMT 11T308E-UR
DCMT 11T312E-FM
DCMT 11T312E-FM2
DCMT 11T312E-RM
DCMT 150408E-RM
DCMX 11T304W-FM
DCMX 11T308W-FM
DNMG 110404E-FF
DNMG 110404E-FM
DNMG 110404EL-SI
DNMG 110404E-NF
DNMG 110404E-NM
DNMG 110404ER-SI
DNMG 110404E-SF
DNMG 110404E-SM
DNMG 110408E-FM
DNMG 110408EL-SI
DNMG 110408E-NF
DNMG 110408E-NM
DNMG 110408ER-SI
DNMG 110408E-SF
DNMG 110408E-SM
DNMG 150404E-FM
DNMG 150404EL-SI
DNMG 150404E-NF
DNMG 150404ER-SI
DNMG 150404E-SF
DNMG 150408E-FM
DNMG 150408EL-SI
DNMG 150408E-NF
DNMG 150408E-NM
DNMG 150408E-NMR
DNMG 150408ER-SI
DNMG 150408E-SF
DNMG 150604E-FM
DNMG 150604EL-SI
DNMG 150604E-NF
DNMG 150604E-NM
DNMG 150604E-NMR
DNMG 150604ER-SI
DNMG 150604E-SF
DNMG 150604E-SM
DNMG 150608E-FM
DNMG 150608EL-SI
DNMG 150608E-NF
DNMG 150608E-NM
DNMG 150608E-NMR
DNMG 150608E-RM
DNMG 150608ER-SI
DNMG 150608E-SF
DNMG 150608E-SM
DNMG 150612E-FM
DNMG 150612E-NF
DNMG 150612E-NMR
DNMG 150612E-RM
DNMG 150612E-SM
DNMM 150608E-NR
ECMT 060204E-FM2
ECMT 080304E-FM2
ECMT 080308E-FM2
RCMT 0602MOE-FM
RCMT 0602MOE-UR
RCMT 0803MOE-FM
RCMT 0803MOE-UR
RCMT 10T3MOE-FM
RCMT 10T3MOE-UR
RCMT 1204MOE-FM
RCMT 1204MOE-RM3
RCMT 1204MOE-UR


69

RCMT 1606MOE-RM3
SCMT 09T304E-FF2
SCMT 09T304E-FM
SCMT 09T304E-FM2
SCMT 09T304E-UR
SCMT 09T308E-FF2
SCMT 09T308E-FM
SCMT 09T308E-FM2
SCMT 09T308E-RM
SCMT 09T308E-UR
SCMT 120404E-FM
SCMT 120408E-FM
SCMT 120408E-RM
SCMT 120408E-RM3
SCMT 120408E-UR
SCMT 120412E-FM
SCMT 120412E-UR
SNMG 120404E-FM
SNMG 120404E-NF
SNMG 120408E-FM
SNMG 120408E-NF
SNMG 120408E-NM
SNMG 120408E-NMR
SNMG 120408E-RM
SNMG 120408E-SF
SNMG 120408E-SM
SNMG 120412E-FM
SNMG 120412E-SF
SNMG 120416E-FM
SNMG 120416E-RM
SNMM 120408E-NR
SNMM 120408E-NR2
SNMM 120412E-NR2
SNMM 150612E-NR2
SNMM 190612E-OR
SNMM 190616E-NR2
SNMM 190616E-OR
SNMM 190616S-923
SNMM 250724E-NR2
SNMM 250724E-OR
SNMM 250724S-923
SNMM 250924E-OR
SNMM 250924S-923
TCGT 06T102E-FF2
TCGT 110202EL-SI
TCGT 110202ER-SI
TCGT 110204EL-SI
TCGT 110204ER-SI
TCMT 06T102E-FF2
TCMT 06T104E-FF2
TCMT 090204E-FF2
TCMT 110202E-FM
TCMT 110204E-FF2
TCMT 110204E-FM
TCMT 110204E-FM2
TCMT 110204E-UR
TCMT 110208E-FF2
TCMT 110208E-FM
TCMT 110208E-FM2
TCMT 16T304E-FF2
TCMT 16T304E-FM
TCMT 16T304E-RM3
TCMT 16T304E-UR
TCMT 16T308E-FF2
TCMT 16T308E-FM
TCMT 16T308E-FM2
TCMT 16T308E-RM
TCMT 16T308E-RM3
TCMT 16T308E-UR
TCMT 16T312E-RM
TNMG 160404E-FF
TNMG 160404E-FM
TNMG 160404EL-SI
TNMG 160404E-NF
TNMG 160404E-NM
TNMG 160404E-NMR
TNMG 160404ER-SI
TNMG 160404E-SF
TNMG 160404E-SM
TNMG 160408E-FM
TNMG 160408EL-SI
TNMG 160408E-NF
TNMG 160408E-NM
TNMG 160408E-NMR
TNMG 160408ER-SI
TNMG 160408E-SF
TNMG 160408E-SM
TNMG 160412E-FM
TNMG 160412E-RM
TNMG 220404E-FM
TNMG 220404E-SM
TNMG 220408E-FM
TNMG 220408E-NM
TNMG 220408E-NMR
TNMG 220408E-SF
TNMG 220408E-SM
TNMM 220412E-NR2












































WCGT 020102E-FF2
WCGT 020104E-FF2
WCMT 06T304E-FM
WCMT 06T308E-FM
WCMT 080404E-FM
WCMT 080408E-FM
WCMT 080412E-FM
WNMG 060404E-FM
WNMG 060404EL-SI
WNMG 060404E-NF
WNMG 060404E-NM
WNMG 060404E-NMR
WNMG 060404ER-SI
WNMG 060404E-SF
WNMG 060404E-SM
WNMG 060408E-FM
WNMG 060408E-NF
WNMG 060408E-NM
WNMG 060408E-SF
WNMG 060408E-SM
WNMG 060412E-SM
WNMG 06T304E-FM
WNMG 06T308E-FM
WNMG 080404E-FM
WNMG 080404EL-SI
WNMG 080404E-NF
WNMG 080404E-NM
WNMG 080404E-NMR
WNMG 080404ER-SI
WNMG 080404E-SF
WNMG 080404E-SM
WNMG 080408E-FM
WNMG 080408EL-SI
WNMG 080408E-M
WNMG 080408E-NF
WNMG 080408E-NM
WNMG 080408E-NMR
WNMG 080408E-RM
WNMG 080408ER-SI
WNMG 080408E-SF
WNMG 080408E-SM
WNMG 080412E-FM
WNMG 080412EL-SI
WNMG 080412E-NF
WNMG 080412E-NMR
WNMG 080412ER-SI
WNMG 080412E-SM
WNMG 080416E-RM
WNMM 080408E-NR
WNMM 080408E-OR

