Probes

True Non-Contact Mode
Probe Force Constant
(N/m)
Frequency
(kHz )
Manufacture Short Description
(Click Probe for detailed specification)
Quote
PPP-NCHR 42 330 Nanosensors ▪ Non-contact cantilever with high resonant frequency
▪ Backside reflex coating
SSS-NCHR 42 330 Nanosensors ▪ Non-contact cantilever with high resonant frequency, backside reflex coating
▪ Tip visibility from top
PPP-NCH 42 330 Nanosensors ▪ Non-contact cantilever with high resonant frequency
SSS-NCH 42 330 Nanosensors ▪ Non-contact cantilever with super sharp tip
▪ Tip radius: 2 nm typical, < 5 nm max.
PPP-NCLR 48 190 Nanosensors ▪ Non-contact cantilever with low resonant frequency of ~ 200 kHz
▪ Backside reflex coating
SSS-NCLR 48 190 Nanosensors ▪ Non-contact cantilever with low resonant frequency of ~ 200 kHz, backside reflex
▪ Tip radius: 2 nm typical, < 5 nm max.
PPP-NCL 48 190 Nanosensors ▪ Non-contact cantilever with low resonant frequency of ~ 200 kHz
SSS-NCL 48 190 Nanosensors ▪ Non-contact cantilever with low resonant frequency of ~ 200 kHz
▪ Tip radius: 2 nm typical, < 5 nm max.
NSC15 40 325 Mikromasch ▪ Non-contact cantilever
▪ Backside reflex coating
AR5-NCH 42 330 Nanosensors ▪ Noncontact cantilever with High aspect ratio tip, Backside reflex coating
▪ Typical aspect ratio of the tip is 7:1
AR5-NCHR 42 330 Nanosensors ▪ Noncontact cantilever with High aspect ratio tip, Backside reflex coating
▪ Typical aspect ratio of the tip is 7:1
AR5T-NCHR 42 330 Nanosensors ▪ Noncontact cantilever with High aspect ratio tip, Backside reflex coating
▪ Typical aspect ratio of the tip is 7:1, and the tip is tilted 13°.
AR10-NCH 42 330 Nanosensors ▪ Noncontact cantilever with High aspect ratio tip
▪ Typical aspect ratio of the tip is 12:1
AR10-NCHR 42 330 Nanosensors ▪ Noncontact cantilever with High aspect ratio tip
▪ Typical aspect ratio of the tip is 12:1
AR10T-NCHR 42 330 Nanosensors ▪ Noncontact cantilever with High aspect ratio tip, Backside reflex coating
▪ Typical aspect ratio of the tip is 12:1, and the tip is tilted 13°.
CNT-NCH 42 330 Nanosensors ▪ Noncontact cantilever with Carbon nanotube tip
▪ Length of the CNT tip: < 750 nm.
OMCL-AC160TS 26 300 Olympus ▪ Non-contact cantilever with high resonant frequency, backside reflex coating
▪ Tip visibility from top
ATEC-NC 45 335 Nanosensors ▪ Non-contact cantilever
▪ Tip visibility from top
ACTA 40 300 AppNano ▪ Non-contact cantilever
▪ Backside reflex coating

Contact Mode
Probe Force Constant
(N/m)
Frequency
(kHz )
Manufacture Short Description
(Click Probe for detailed specification)
Quote
NSC36 0.95
1.75
0.6
105
155
75
Mikromasch ▪ Contact cantilever, Backside reflex coating
▪ 3 cantilevers on a chip
PPP-CONTSCR 0.2 23 Nanosensors ▪ Contact cantilever with higher Q factor
▪ Backside reflex coating
NSC36/Si3N4 0.95
1.75
0.6
105
155
75
Mikromasch ▪ Contact cantilever, 3 cantilevers on a chip
▪ Si3N4 layer on cantilevers (chemically inert and more hydrophobic than silicon
PNP-DB 0.48
0.06
67
17
Nanoworld ▪ Contact cantilever made of Silicon Nitride, Backside reflex coating
▪ 2 cantilevers on a chip
PNP-TR 0.32
0.08
67
17
Nanoworld ▪ Contact cantilever made of Silicon Nitride, Backside reflex coating
▪ 2 triangular cantilevers on a chip

LFM (Lateral Force Microscopy)
Probe Force Constant
(N/m)
Frequency
(kHz )
Manufacture Short Description
(Click Probe for detailed specification)
Quote
PPP-LFMR 0.2 23 Nanosensors ▪ Contact cantilever with higher sensitivity to lateral/frictional force
▪ Backside reflex coating
OMCL-TR800PSA 0.38
0.73
0.05
0.10
68
71
18
19
Olympus ▪ Contact cantilever for imaging soft biological samples
▪ Backside reflex coating

FMM (Force Modulation Microscopy
Probe Force Constant
(N/m)
Frequency
(kHz )
Manufacture Short Description
(Click Probe for detailed specification)
Quote
PPP-FMR 2.8 75 Nanosensors ▪ Cantilever of optimized force constant for FMM
▪ Backside reflex coating
DT-FMR 2.8 75 Nanosensors ▪ Cantilever of optimized force constant for FMM
▪ Diamond-coated tip, Backside reflex coating
NSC14/Si3N4 5 160 Mikromasch ▪ Cantilever with lower force constant for FMM and Noncontact mode
▪ Si3N4 layer on cantilevers (chemically inert and more hydrophobic than silicon

Conductive AFM / VECA / ULCA
Probe Force Constant
(N/m)
Frequency
(kHz )
Manufacture Short Description
(Click Probe for detailed specification)
Quote
CDT-CONTR 0.2 13 Nanosensors ▪ Contact cantilever for Conductive AFM, Backside reflex coating
▪ Electrically conductive diamond-coated tip, REQUIRES Teflon-coated chip
PPP-CONTSCPt 0.2 13 Nanosensors ▪ Contact cantilever with higher Q factor for Conductive AFM
▪ Electrically conductive tip, Coated with Pt-Ir
Platinum 0.2 13 - ▪ Contact cantilever made of solid platinum
▪ Recommended for high voltage/current application above ±10 V or 1 µA
NSC18/Cr-Au 3.5 75 Mikromasch ▪ Contact cantilever for Conductive AFM, Backside reflex coating
▪ Electrically conductive tip, Coated with Cr-Au

EFM / DC-EFM / SKPM
Probe Force Constant
(N/m)
Frequency
(kHz )
Manufacture Short Description
(Click Probe for detailed specification)
Quote
NSC14/Cr-Au 5 160 Mikromasch ▪ Cantilever with lower force constant for EFM
▪ Conductive tip for electrical application, Coated with Cr-Au
PPP-NCSTAu 7.4 160 Nanosensors ▪ Cantilever with lower force constant
▪ Conductive tip for electric application, Coated with Au
PPP-EFM 2.8 75 Nanosensors ▪ Cantilever with lower force constant
▪ Conductive tip for electric application, Coated with Pt-Ir
CDT-CONTR 0.2 13 Nanosensors ▪ Contact cantilever for DC-EFM, Backside reflex coating
▪ Electrically conductive diamond-coated tip
CDT-NCHR 42 330 Nanosensors ▪ Cantilever with high resonant frequency for DC-EFM, Backside reflex coating
▪ Electrically conductive diamond-coated tip
NSC36/Cr-Au 0.95
1.75
0.6
105
155
75
Mikromasch ▪ Contact cantilever for EFM, 3 cantilevers on a chip
▪ Conductive tip for electrical application, Coated with Cr-Au
Multi75E 3 75 Budget Sensors ▪ Cantilever with lower force constant
▪ Conductive tip for electric application, Coated with Cr-Pt
Platinum 18 14 - ▪ Contact cantilever made of solid platinum
▪ Recommended for high voltage/current application above ±10 V or 1 µA

Bio Application
Probe Force Constant
(N/m)
Frequency
(kHz )
Manufacture Short Description
(Click Probe for detailed specification)
Quote
PNP-DB 0.48
0.06
67
17
Nanoworld ▪ Contact cantilever made of Silicon Nitride, Backside reflex coating
▪ 2 cantilevers on a chip
PNP-TR 0.32
0.08
67
17
Nanoworld ▪ Contact cantilever made of Silicon Nitride, Backside reflex coating
▪ 2 triangular cantilevers on a chip
PPP-CONTSCAuD 0.2 23 Nanosensors ▪ Contact cantilever with higher Q factor
▪ Backside reflex coating with Au
BL-RC150VB 0.03
0.006
37
13
Olympus ▪ Optimized for F-d spectroscopy measurement, Backside reflex coating
▪ 2 cantilevers on a chip
DNP-S 0.175
0.06
0.12
0.03
50
16
40
12
Bruker ▪ Contact cantilever for imaging biological samples
▪ 4 triangular cantilevers on a chip
NSC36 0.95
1.75
0.6
105
155
75
Mikromasch ▪ Contact cantilever, Backside reflex coating
▪ 3 cantilevers on a chip
OMCL-TR800PSA 0.38
0.73
0.05
0.10
68
71
18
19
Olympus ▪ Contact cantilever for imaging soft biological samples
▪ Backside reflex coating

MFM
Probe Force Constant
(N/m)
Frequency
(kHz )
Manufacture Short Description
(Click Probe for detailed specification)
Quote
PPP-MFMR 2.8 75 Nanosensors ▪ Cantilever for MFM, Backside reflex coating
▪ Tip is coated with hard magnetic material
PPP-LC-MFMR 2.8 75 Nanosensors ▪ Cantilever for MFM, Backside reflex coating
▪ Tip is coated with soft magnetic material
PPP-LM-MFMR 2.8 75 Nanosensors ▪ Cantilever for MFM, Backside reflex coating
▪ Tip is coated with magnetic material of reduced magnetic moment
SSS-MFMR 2.8 75 Nanosensors ▪ Cantilever for high resolution MFM, Backside reflex coating
▪ Sharp tip of the radius less than 15 nm is coated with magnetic material
NSC18/Co-Cr 3.5 75 Mikromasch ▪ Cantilever for MFM
▪ Tip is coated with Co-Cr
NSC19/Co-Cr 0.6 80 Mikromasch ▪ Cantilever with lower force constant for MFM
▪ Tip is coated with Co-Cr

SCM
Probe Force Constant
(N/m)
Frequency
(kHz )
Manufacture Short Description
(Click Probe for detailed specification)
Quote
PPP-EFM 2.8 75 Nanosensors ▪ Cantilever with lower force constant, REQUIRES Ceramic chip carrier
▪ Conductive tip for electric application, Coated with Pt-Ir
Platinum 18 14 - ▪ Contact cantilever made of solid platinum
▪ Recommended for high voltage/current application above ±10 V or 1 µA

Nanolithography
Probe Force Constant
(N/m)
Frequency
(kHz )
Manufacture Short Description
(Click Probe for detailed specification)
Quote
DT-NCHR 42 330 nanosensors ▪ Cantilever with high force constant for Lithography, Backside reflex coating
▪ Diamond-coated tip, REQUIRES Teflon-coated chip carrier
Multi75E 3 75 Budget Sensors ▪ Cantilever with lower force constant, REQUIRES Teflon-coated chip carrier
▪ Conductive tip for electric application, Coated with Cr-Pt
CDT-CONTR 0.2 13 Nanosensors ▪ Contact contact cantilever for Lithography based on oxidation, Backside reflex coating
▪ Electrically conductive diamond-coated tip, REQUIRES Teflon-coated chip carrier
CDT-NCHR 42 330 Nanosensors ▪ Cantilever with high resonant frequency for Lithography, Backside reflex coating
▪ Electrically conductive diamond-coated tip, REQUIRES Teflon-coated chip carrier
Platimum 18 14 - ▪ Contact cantilever made of solid platinum
▪ Recommended for high voltage/current application above ±10 V or 1 µA

Atomic Force Microscope
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AFM (Atomic Force Microscope) Probes, Probe inquiry, Probes