ライフサイエンスコーパス: single molecule spectroscopy

1 s a critical step towards the untethering of single molecule spectroscopy.

2 w we present several examples of femtosecond single molecule spectroscopy.

3 vestigate dibenzoterrylene (DBT) by bulk and single molecule spectroscopy.

4 time observed in slower folding proteins by single-molecule spectroscopy.

5 LASR combines temperature-jump kinetics and single-molecule spectroscopy.

6 what we believe is a novel approach based on single-molecule spectroscopy.

7 used an IDP as a crowding sensor for in-cell single-molecule spectroscopy.

8 V centers as a tool for chemical sensing and single-molecule spectroscopy.

9 ng rapid biomolecular kinetics with confocal single-molecule spectroscopy.

10 e recent progress in nanotechnology(1,2) and single-molecule spectroscopy(3-5) paves the way for emer

11 energy transfer together with colocalization single-molecule spectroscopy, a combination of methods t

12 Single-molecule spectroscopy allows us to quantify the e

13 biochemical and biophysical applications of single molecule spectroscopy and fluorescence microscopy

14 focuses on recent advances in colocalization single molecule spectroscopy and how this technique has

15 New approaches in single molecule spectroscopy and microscopy are able to

16 Single-molecule spectroscopy and confocal fluorescence c

17 the stability demands on fluorescent dyes in single-molecule spectroscopy and fluorescence microscopy

18 We employ molecular dynamics, single-molecule spectroscopy and hydrogen-deuterium exch

19 Here, we apply a combination of single-molecule spectroscopy and molecular dynamics simu

20 the development of biophysical tools such as single-molecule spectroscopy and noncovalent mass spectr

21 Here, we combined single-molecule spectroscopy and structural methods usin

22 ange of in vitro studies of GPCRs, including single-molecule spectroscopy, and is a promising platfor

23 riving force for these developments has been single-molecule spectroscopy, as it allows structural he

24 nt advances in single-molecule detection and single-molecule spectroscopy at room temperature by lase

25 temporal limitations of conventional protein single-molecule spectroscopy by employing correlation an

26 y encapsulation in trehalose are examined by single-molecule spectroscopy by means of a two-channel c

27 This demonstrates that microfluidic single molecule spectroscopy can be a rapid, facile, and

28 Single-molecule spectroscopy can detect conformational h

29 phy gel filtration data and demonstrate that single-molecule spectroscopy can provide useful insights

30 Using colocalization single-molecule spectroscopy combined with single-molecu

31 recruitment directly, we used Colocalization Single Molecule Spectroscopy (CoSMoS) to study the dynam

32 We have used colocalization single molecule spectroscopy (CoSMoS) to visualize Lsm2-

33 mble kinetic measurements and colocalization single molecule spectroscopy (CoSMoS).

34 Colocalization single-molecule spectroscopy (CoSMoS) has proven to be a

35 es a promoter by FD using the colocalization single-molecule spectroscopy (CoSMoS) multiwavelength fl

36 In this work we used colocalization single-molecule spectroscopy (CoSMoS) to elucidate the p

37 Here we use co-localization single-molecule spectroscopy (CoSMoS) to follow the exch

38 a fluorescence method called colocalization single-molecule spectroscopy (CoSMoS), Friedman and Gell

39 Colocalization single molecule spectroscopy enables simultaneous observ

40 echnique, fluorescence-voltage time-resolved single molecule spectroscopy (FV-TR-SMS).

41 Single-molecule spectroscopy has developed into a field

42 Single-molecule spectroscopy has the power to probe indi

43 Recent technical advances in single-molecule spectroscopy have made it possible to di

44 out local physicochemical parameters through single-molecule spectroscopy, here, we uncover nanoscale

45 le level and quantified using colocalization single-molecule spectroscopy, in which individual labele

46 ess of such techniques in the life sciences, single-molecule spectroscopy is finding increasing appli

47 vitro annealing mechanism using a multistep single-molecule spectroscopy kinetic method.

48 ple experiment types, e.g. for time-resolved single-molecule spectroscopy, laser scanning microscopy,

49 dynamics, can be identified and analyzed by single-molecule spectroscopy measurements.

50 This single-molecule spectroscopy method directly probes kine

51 inding and encapsulation by GroEL/GroES with single-molecule spectroscopy, microfluidic mixing, and e

52 This article reviews recent progress in single molecule spectroscopy of conjugated polymers as u

53 Excitonic energy migration was studied using single molecule spectroscopy of individual conjugated po

54 This work presents for the first time the single-molecule spectroscopy of a new molecular probe wh

55 Single-molecule spectroscopy of the 584 strong adsorptio

56 Single molecule spectroscopy on oligo(phenylenevinylene)

57 However, single-molecule spectroscopy optimized for measurements

58 Bulk and single-molecule spectroscopy reveal that near-physiologi

59 Single-molecule spectroscopy showed that exchange betwee

60 By borrowing ideas from single-molecule spectroscopy, single delocalized pai-ele

61 Single molecule spectroscopy (SMS) has matured to a poin

62 It is widely appreciated that single-molecule spectroscopy (SMS) can be used to measur

63 Single-molecule spectroscopy (SMS) provides a detailed v

64 approach with a broad array of fluorescence single-molecule spectroscopy (SMS) tools (FRET, molecule

65 ng way since the early demonstrations of the single-molecule spectroscopy studies of enzymatic dynami

66 Recent single-molecule spectroscopy studies on the trimeric LHC

67 Such high temperatures, so far unreached in single-molecule spectroscopy studies, were achieved usin

68 ility of this method with different types of single molecule spectroscopy techniques, including confo

69 Here, we show, using single-molecule spectroscopy, that the FCP complexes of

70 We used multi-wavelength colocalization single molecule spectroscopy to directly observe the key

71 re we use quantitative live-cell imaging and single-molecule spectroscopy to analyze how different tr

72 Here, we use single-molecule spectroscopy to demonstrate that surface

73 Here, we use colocalization single-molecule spectroscopy to dissect the kinetic path

74 ccus lactis, were characterized by employing single-molecule spectroscopy to follow the turnover kine

75 We have used single-molecule spectroscopy to show that the natural fo

76 Here, we use single-molecule spectroscopy to uncover the photoprotect

77 In this report, we used single-molecule spectroscopy together with biophysical a

78 Single-molecule spectroscopy was used to examine how a m

79 Single-molecule spectroscopy was used to follow the orie

80 Single-molecule spectroscopy was used to reveal energy t

81 By single-molecule spectroscopy we have observed a fluoresc

82 tion of mutagenesis, structural biology, and single molecule spectroscopy, we show how Lnk2 influence

83 Using single-molecule spectroscopy, we address this fundamenta

84 Using a combination of ensemble and single-molecule spectroscopy, we have scrutinized the un

85 Using surface plasmon resonance and single-molecule spectroscopy, we show that POmAb interac

86 We used atomic force microscopy-based single molecule spectroscopy with antibody-modified atom

87 Here we combine single-molecule spectroscopy with all-atom simulations t