ライフサイエンスコーパス: scanning probe microscopy

1 ies of these processes have been revealed by scanning probe microscopy.

2 on the switching of individual domains using scanning probe microscopy.

3 n nanoelectromechanical systems, sensing and scanning probe microscopy.

4 the rare outer membrane proteins visible by scanning probe microscopy.

5 irus (CPMV), were compared by AC capacitance scanning probe microscopy.

6 carbon nanotubes have been used as probes in scanning probe microscopy.

7 ing, histologic analysis, and multifrequency scanning probe microscopy.

8 s, which cannot be matched using electron or scanning-probe microscopy.

9 ion conductance microscopy (SICM) and other scanning probe microscopies.

10 single molecules investigated by optical and scanning probe microscopies.

11 Cu(110) surface at 5 K, which is studied by scanning probe microscopy and density functional theory

12 of interest for many applications, including scanning probe microscopy and electron-stimulated patter

13 of functionalized force imaging, enabled by scanning probe microscopy and molecular force spectrosco

14 Using scanning probe microscopy and nano-dynamic mechanical an

15 The cell lysate content was measured with scanning probe microscopy and spectrophotometry.

16 ions, and illustrate the synergetic power of scanning probe microscopy and theoretical computation te

17 Studied by scanning probe microscopy and transmission electron micr

18 y combining the benefits of widely available scanning probe microscopy and vibrational microspectrome

19 r-field optical microscopy and spectroscopy, scanning probe microscopy, and cathodoluminescence in th

20 embled monolayers of GNRs can be observed by scanning probe microscopy, and non-contact time-resolved

21 , enabled by recent advances in electron and scanning probe microscopy, are discussed.

22 ace-based environment and the utilisation of scanning probe microscopies as a primary characterisatio

23 Here, we report a massively parallel scanning probe microscopy-based approach that can genera

24 Dip-pen nanolithography (DPN) is a scanning probe microscopy-based nanofabrication techniqu

25 omplements more widely used fluorescence and scanning probe microscopies by combining large-area meas

26 troscopy with the high spatial resolution of scanning probe microscopies by utilizing plasmonic nanos

27 Scanning probe microscopy can now be used to map the pro

28 Using multifrequency scanning probe microscopy, collagen elastic modulus was

29 Scanning probe microscopy confirms that this modified co

30 ipulation capability already demonstrated by scanning probe microscopy could be combined with a nanot

31 Scanning probe microscopy facilitates high-resolution no

32 Scanning probe microscopy has become a powerful tool to

33 Scanning probe microscopy has emerged as a primary tool

34 r, recent advances in lithographies based on scanning probe microscopy have made use of transparent t

35 Development of scanning-probe microscopies in the 1990s led to atomic-r

36 Advances in scanning probe microscopy now provide the tools to visua

37 ulation of individual atoms and molecules by scanning probe microscopy offers the ability of controll

38 hanism is corroborated with a combination of scanning probe microscopy, Raman spectroscopy, and densi

39 Scanning-probe-microscopy results demonstrate the existe

40 Scanning probe microscopies (SPM) and cantilever-based s

41 Advances in scanning probe microscopies (SPM) have allowed the mecha

42 f thiolates on Au by using shear force-based scanning probe microscopy (SPM) combined with current-vo

43 or arylates on Au by using shear force-based scanning probe microscopy (SPM) combined with current-vo

44 In this article, a brief overview of scanning probe microscopy (SPM) methods addressing nanos

45 trated a new comprehensive method to combine scanning probe microscopy (SPM) nanolithography and modi

46 This review gives an overview of using Scanning Probe Microscopy (SPM), in particular Scanning

47 nce microscopy (SICM) is a nanopipette-based scanning probe microscopy technique that utilizes the io

48 ates the implementation of voltage-modulated scanning probe microscopy techniques such as Kelvin prob

49 many years, researchers have been developing scanning probe microscopy techniques to improve imaging

50 lectrochemical strain microscopy, the biased scanning probe microscopy tip acts as a moving, electroc

51 in dimension to the effective diameter of a scanning probe microscopy tip.

52 gations into the performance of nanotubes as scanning probe microscopy tips have focused on topograph

53 have occurred recently in the application of scanning probe microscopy to biology.

54 ity and are paired with molecular-resolution scanning probe microscopy to elucidate the structure of

55 By using scanning probe microscopy, we show that the fast ion-con

56 Tip-enhanced Raman spectroscopy combines scanning probe microscopy with plasmon-enhanced Raman sc

57 bines the atomic-scale imaging capability of scanning probe microscopy with the single-molecule chemi