ライフサイエンスコーパス: electron energy-loss spectroscopy

1 netration were studied by scanning reflected electron energy loss spectroscopy.

2 canning transmission electron microscopy and electron energy loss spectroscopy.

3 , as revealed by atomic-scale microscopy and electron energy loss spectroscopy.

4 on microscopy coupled with element-sensitive electron energy loss spectroscopy.

5 etected by IR but was previously observed in electron energy loss spectroscopy.

6 as observed on Be(0001) using angle-resolved electron energy loss spectroscopy.

7 which are corroborated by spatially resolved electron energy-loss spectroscopy.

8 at 540 cm(-1), as probed by high-resolution electron energy-loss spectroscopy.

9 demon in Sr(2)RuO(4) from momentum-resolved electron energy-loss spectroscopy.

10 on sensor (scintillator/fiber-optic/CCD) for electron energy-loss spectroscopy.

11 n, as unravelled from chemical titration and electron energy-loss spectroscopy.

12 ronic properties, as measured by single-atom electron energy-loss spectroscopy.

13 canning transmission electron microscopy and electron energy-loss spectroscopy.

14 e[Formula: see text] using momentum-resolved electron energy loss spectroscopy, a technique uniquely

15 The f-band occupancies are probed using electron energy loss spectroscopy and an unexpectedly we

16 High-resolution electron energy loss spectroscopy and carbon monoxide ad

17 n electron microscopy analysis combined with electron energy loss spectroscopy and computational mode

18 f angle-resolved photoemission spectroscopy, electron energy loss spectroscopy and density functional

19 ow-energy excitations is provided by valence electron energy loss spectroscopy and near-field infrare

20 of the Li content and profiles were done by electron energy loss spectroscopy and secondary ion mass

21 Further, the electron energy loss spectroscopy and X-ray absorption n

22 The intercalation was further confirmed by electron energy loss spectroscopy and X-ray diffraction.

23 ultrafast electron diffraction, but also for electron energy-loss spectroscopy and as a seed for x-ra

24 Electron energy-loss spectroscopy and density functional

25 ng scanning transmission electron microscopy/electron-energy loss spectroscopy and density functional

26 icroscopy, transmission electron microscopy, electron-energy loss spectroscopy and Raman spectroscopy

27 n scanning transmission electron microscopy, electron energy loss spectroscopy, and angle-resolved Ra

28 microscopy, photoluminescence spectroscopy, electron energy loss spectroscopy, and annealing studies

29 ive atomic force microscopy, high-resolution electron energy loss spectroscopy, and phase-field simul

30 with video microscopy, electron tomography, electron energy loss spectroscopy, and soft X-ray tomogr

31 canning transmission electron microscopy and electron energy-loss spectroscopy are indispensable tool

32 d transmission electron microscopy (TEM) and electron energy-loss spectroscopy associated with scanni

33 Z-contrast imaging and electron energy loss spectroscopy at single atom level a

34 ansmission electron microscopy combined with electron energy loss spectroscopy at the nanometer scale

35 ng and transmission electron microscopy, and electron energy-loss spectroscopy at different stages.

36 ding near-field scanning optical microscopy, electron energy-loss spectroscopy, cathode luminescence

37 lations and transmission electron microscopy-electron energy loss spectroscopy characterizations.

38 ng combined with energy-dispersive X-ray and electron energy loss spectroscopy chemical mappings, whi

39 canning transmission electron microscopy and electron energy loss spectroscopy combined with ab initi

40 tion spectroscopy, and single-atom-sensitive electron energy loss spectroscopy, confirm the atomic di

41 Electron energy loss spectroscopy confirmed the strong i

42 Electron energy loss spectroscopy confirms a uniform Mn

43 e broadening of their diffraction spots, and electron energy-loss spectroscopy confirms them to be pr

44 redict a spectacularly large decrease in the electron-energy-loss spectroscopy cross-section in the m

45 ansmission electron microscopy combined with electron energy loss spectroscopy (cryo-STEM-EELS).

46 Complementary monochromated electron energy-loss spectroscopy demonstrates bandgap m

47 ides quantitative compositional analysis and electron energy-loss spectroscopy details the chemical b

48 layer (SRL) was gradually decomposed during electron energy loss spectroscopy (EELS) acquisition.

49 this tutorial review, we present the use of electron energy loss spectroscopy (EELS) and cathodolumi

50 d this SMSI, further corroborated by in situ electron energy loss spectroscopy (EELS) and density fun

51 exsolved metal nanoparticles, as revealed by electron energy loss spectroscopy (EELS) and diffuse ref

52 and electron microscopy (CLEM) coupled with electron energy loss spectroscopy (EELS) and energy-filt

53 Electron energy loss spectroscopy (EELS) and soft X-ray

54 Interestingly, electron energy loss spectroscopy (EELS) and soft X-ray

55 of the oxide shell on Fe nanoparticles using electron energy loss spectroscopy (EELS) at the oxygen (

56 In situ Electron Energy Loss Spectroscopy (EELS) combined with T

57 While electron energy loss spectroscopy (EELS) data acquisitio

58 the potential of time-resolved, femtosecond electron energy loss spectroscopy (EELS) for mapping ele

59 dynamic computer vision-enabled imaging with electron energy loss spectroscopy (EELS) in scanning tra

60 dies of meteorite grown M. sedula coupled to electron energy loss spectroscopy (EELS) points to the r

61 -atomic emission spectroscopy (ICP-AES), and electron energy loss spectroscopy (EELS) reveal a compos

62 Electron energy loss spectroscopy (EELS) reveals the exi

63 Electron energy loss spectroscopy (EELS) showed that the

64 Quantitative composition analysis from electron energy loss spectroscopy (EELS) showed the stoi

65 The ionization edges encoded in the electron energy loss spectroscopy (EELS) spectra enable

66 Electron energy loss spectroscopy (EELS) studies coupled

67 aging (STEM-ADF), electron ptychography, and electron energy loss spectroscopy (EELS) to investigate

68 In this study, electron energy loss spectroscopy (EELS) was used to eva

69 on transmission electron microscopy (HRTEM), electron energy loss spectroscopy (EELS), and X-ray abso

70 ods such as (i) EM spectroscopies, including electron energy loss spectroscopy (EELS), cathodolumines

71 Through combining nanoprobe and electron energy loss spectroscopy (EELS), it is also dis

72 ergy dispersive x-ray spectroscopy (EDS) and electron energy loss spectroscopy (EELS), the distributi

73 Using cryo-electron microscopy with electron energy loss spectroscopy (EELS), we show organo

74 Using both Raman spectroscopy and electron energy loss spectroscopy (EELS), we show that t

75 n transmission electron microscopy (TEM) and electron energy loss spectroscopy (EELS).

76 ty energy dispersive X-ray (EDS) mapping and electron energy loss spectroscopy (EELS).

77 transmission electron microscopy (TEM), and electron energy loss spectroscopy (EELS).

78 sured by optical extinction spectroscopy and electron energy-loss spectroscopy (EELS) and are in agre

79 over multiple charge-discharge cycles using electron energy-loss spectroscopy (EELS) in a scanning t

80 his study, the effects of beam damage during electron energy-loss spectroscopy (EELS) in the transmis

81 sigma valence electrons were measured using electron energy-loss spectroscopy (EELS) of individual c

82 Anion photoelectron spectroscopy (PES) and electron energy-loss spectroscopy (EELS) probe different

83 in situ powder x-ray diffraction and in situ electron energy-loss spectroscopy (EELS) to identify an

84 n transmission electron microscopy (TEM) and electron energy-loss spectroscopy (EELS) were used to me

85 (TEM) imaging and monochromated scanning TEM electron energy-loss spectroscopy (EELS).

86 re-programmed desorption and high-resolution electron energy loss spectroscopy experiments.

87 olution transmission electron microscopy and electron energy-loss spectroscopy experiments on the rec

88 Spatially resolved electron energy loss spectroscopy has previously been us

89 grammed desorption (TPD) and high resolution electron energy loss spectroscopy (HREELS) data show tha

90 ctron diffraction (LEED) and high-resolution electron energy loss spectroscopy (HREELS) measurements

91 ature programmed desorption, high-resolution electron energy loss spectroscopy (HREELS), and density

92 High-resolution electron energy loss spectroscopy (HREELS), temperature-

93 copic ellipsometry (SE), and high-resolution electron energy loss spectroscopy (HREELS).

94 Here, using monochromatic electron energy loss spectroscopy in a scanning transmis

95 ectrical and optical measurements as well as electron energy loss spectroscopy in a scanning transmis

96 improved the attainable energy resolution of electron energy loss spectroscopy in a scanning transmis

97 Using in situ electron energy loss spectroscopy in a transmission elec

98 terface with atomically resolved imaging and electron energy loss spectroscopy in an electron microsc

99 (SiGe) quantum dot (QD) using monochromated electron energy loss spectroscopy in the transmission el

100 Here, using electron energy-loss spectroscopy in a scanning transmis

101 no acid, l-alanine, with damage-free "aloof" electron energy-loss spectroscopy in a scanning transmis

102 aman spectroscopy and high-energy-resolution electron energy-loss spectroscopy in a scanning transmis

103 gen absorption and desorption, using in situ electron energy-loss spectroscopy in an environmental tr

104 Using high-resolution electron energy-loss spectroscopy in the electron micros

105 s by using X-ray absorption spectroscopy and electron energy-loss spectroscopy in the scanning transm

106 Based on atomically resolved electron energy-loss spectroscopy, in situ charge mappin

107 Vibrational electron energy loss spectroscopy is applied for the fir

108 tly developed technique of momentum-resolved electron energy-loss spectroscopy (M-EELS), we studied e

109 migration of point defects, as supported by electron energy loss spectroscopy measurements and also

110 led magnetic, current/voltage and low-energy electron energy loss spectroscopy measurements were perf

111 Electron energy loss spectroscopy measurements with scan

112 y on (001) Ba(Fe(1-x)Co(x))(2)As(2), through electron energy loss spectroscopy measurements, reveals

113 ompare and contrast these results with prior electron energy loss spectroscopy measurements.

114 Sub-wavelength electron energy-loss spectroscopy measurements and theor

115 Analyses performed by electron energy loss spectroscopy of atomic columns at t

116 Unfortunately, the energy resolution of electron energy loss spectroscopy performed in the elect

117 Electron energy-loss spectroscopy provides direct eviden

118 andgap is measured as 2.52 eV from reflected electrons energy loss spectroscopy (REELS).

119 In such a highly anisotropic configuration, electron energy loss spectroscopy reveals that the self-

120 nsional electron gas at the interface, while electron energy loss spectroscopy showed negligible elec

121 Hydrogen mapping by electron energy loss spectroscopy showed that the entire

122 the spectra is evaluated for near zero-loss electron energy loss spectroscopy signals in Scanning Tr

123 Using annular dark field imaging and electron energy-loss spectroscopy signals, STEM probes r

124 ancies near the film surface, as revealed by electron-energy loss spectroscopy, stabilizes the charge

125 uring the ALD growth process is confirmed by electron energy loss spectroscopy (STEM-EELS) and hypoth

126 canning transmission electron microscopy and electron energy loss spectroscopy (STEM-EELS), and densi

127 ed scanning transmission electron microscopy/electron energy loss spectroscopy (STEM/EELS).

128 We utilize STM and high-resolution electron energy-loss spectroscopy supported by density-f

129 py, energy-dispersive x-ray spectroscopy and electron energy loss spectroscopy supports the presence

130 Here, we demonstrate a four-dimensional electron energy loss spectroscopy technique, and present

131 Here, using the four-dimensional electron energy-loss spectroscopy technique, we directly

132 y (XAS) and transmission electron microscopy/electron energy loss spectroscopy (TEM/EELS) to investig

133 ransmission electron microscopy coupled with electron energy-loss spectroscopy (TEM-EELS).

134 Using monochromated electron energy-loss spectroscopy, the strong infrared p

135 sion of time in microscopy, diffraction, and electron-energy-loss spectroscopy, the focus is on direc

136 re we use momentum-selective high-resolution electron energy loss spectroscopy to atomically resolve

137 canning transmission electron microscopy and electron energy loss spectroscopy to determine the atomi

138 canning transmission electron microscopy and electron energy loss spectroscopy to examine vibrational

139 canning transmission electron microscopy and electron energy loss spectroscopy to investigate changes

140 tomic-resolution energy-dispersive x-ray and electron energy loss spectroscopy to investigate Ti-, V-

141 sion electron microscopy in combination with electron energy loss spectroscopy to measure the distrib

142 canning transmission electron microscopy and electron energy loss spectroscopy to resolve changes in

143 e, we use state-of-the-art, locally resolved electron energy-loss spectroscopy to directly probe the

144 We further use monochromated valence electron energy-loss spectroscopy to obtain spatially re

145 cture of the line defect probed in STEM with electron energy-loss spectroscopy was supported by ab in

146 n of molecular oxygen, confirmed by operando electron energy-loss spectroscopy, was accompanied by a

147 Using electron energy loss spectroscopy, we experimentally evi

148 canning transmission electron microscope and electron energy loss spectroscopy, we quantified the loc

149 Using electron energy loss spectroscopy, we retrieved the comp

150 imaging combined with single-atom-sensitive electron energy loss spectroscopy, we scrutinized thin s

151 transmission electron microscopy and valence electron energy-loss spectroscopy, we detect water seale

152 ansmission electron microscope combined with electron energy-loss spectroscopy, we experimentally sho

153 e tracking of Li(+) migration using operando electron energy-loss spectroscopy, we reveal that facile

154 olution transmission electron microscopy and electron energy-loss spectroscopy, we show that berylliu

155 uring ABS printing was performed via TEM and electron energy loss spectroscopy, which indicated a hig

156 e introduce a new form of momentum-selective electron energy-loss spectroscopy, which enables the ele

157 the local lattice vibrational spectra using electron energy-loss spectroscopy, which reveals phonon

158 canning transmission electron microscopy and electron energy loss spectroscopy with atomic-scale spat

159 es are evidenced by performing monochromated electron energy-loss spectroscopy with a nanometre-sized

160 By using high-resolution electron energy-loss spectroscopy with hybrid-pixel elec

161 ive imaging at atomic resolution by means of electron energy-loss spectroscopy, with acquisition time

162 imaging methods, including Raman, Infrared, electron energy loss spectroscopy, X-ray diffraction, X-