ライフサイエンスコーパス: magnetic susceptibility

1 low field anomaly does not contribute to the magnetic susceptibility.

2 phase directly relates to local bulk tissue magnetic susceptibility.

3 lies near 150 K in both resistivity and d.c. magnetic susceptibility.

4 ption spectroscopy, and variable-temperature magnetic susceptibility.

5 ercent total organic matter, grain size, and magnetic susceptibility.

6 en evolution, DSC, optical spectroscopy, and magnetic susceptibility.

7 ment with previous studies on the hemoglobin magnetic susceptibility.

8 and trace metal chemistry, bulk density, and magnetic susceptibility.

9 cyclic voltammetry, and variable-temperature magnetic susceptibility.

10 heme tissue iron, deoxyhemoglobin, and their magnetic susceptibilities.

11 was found that dendrite structure shows good magnetic susceptibility (180.2 emu/g).

12 ts, which behave differently as shown by the magnetic susceptibility analysis, while the Fe(II) (LS,

13 celles) that have positive anisotropy of the magnetic susceptibility and align with their normals par

14 ctivity in compressed lithium is observed by magnetic susceptibility and electrical resistivity measu

15 In particular, Evans NMR magnetic susceptibility and EPR measurements indicate th

16 Variable-temperature magnetic susceptibility and EPR spectroscopy measurement

17 contained in the frequency dependence of the magnetic susceptibility and in its high frequency or adi

18 erized by solid state X-ray crystallography, magnetic susceptibility and LIII-edge XANES spectroscopy

19 ue to the dramatically enhanced out-of-phase magnetic susceptibility and magnetically tailored AC/DC

20 Fits to the DC magnetic susceptibility and magnetization data for 1 sho

21 Dc magnetic susceptibility and magnetization measurements r

22 g process, which is represented by dynamical magnetic susceptibility and maximized at phase transitio

23 Magnetic susceptibility and Mossbauer spectroscopy revea

24 y shifts originating from local variation in magnetic susceptibility and other sources have greatly i

25 volume differences, and both its Pauli-like magnetic susceptibility and resistivity are an order of

26 Magnetic susceptibility and resistivity measurements are

27 by complementary electrical resistivity, ac magnetic susceptibility and single-crystal neutron diffr

28 pendicular magnetic field depending on their magnetic susceptibility and size and on the flow rate.

29 gnetization with a tangential loss in the ac-magnetic susceptibility and the Mydosh parameter (phi =

30 At lower temperatures, ac magnetic susceptibility and variable field heat capacity

31 licate columns using sequential extractions, magnetic susceptibility and X-ray absorption spectroscop

32 t parameters (radius, length, Young modulus, magnetic susceptibility) and, using these values, we fou

33 n examined using magnetic criteria, NICS and magnetic susceptibility, and by structural criteria, HOM

34 the many tissue parameters, such as T1, T2, magnetic susceptibility, and chemical shift, that contri

35 absorption near-edge structure spectroscopy, magnetic susceptibility, and complete active space self-

36 lvated framework is supported by structural, magnetic susceptibility, and computational studies.

37 Mossbauer, EPR, magnetic susceptibility, and DFT studies of the unusual

38 examined with X-ray and neutron diffraction, magnetic susceptibility, and electrical resistivity meas

39 cence efficiency, electron mobility, doping, magnetic susceptibility, and electrocatalytic performanc

40 sample temperature gradient and anisotropic magnetic susceptibility, and present a refined high-reso

41 ich is confirmed by the zero resistivity, AC magnetic susceptibility, and specific heat measurements.

42 ted-state lifetime, electron spin resonance, magnetic susceptibility, and structural data all suggest

43 y, magnetic circular dichroism spectroscopy, magnetic susceptibility, and transmission electron micro

44 py, elemental analysis, variable-temperature magnetic susceptibility, and UV-visible-NIR spectroscopy

45 rast agents reveals unexpected trends in the magnetic susceptibility anisotropy that cannot be explai

46 fferent external alignment media and also by magnetic susceptibility anisotropy.

47 Temperature-dependent magnetic susceptibilities are reported for all complexes

48 of sigma(RT) = 0.03 S/cm and the Pauli-like magnetic susceptibility are best described by the resona

49 es such as X-ray absorption spectroscopy and magnetic susceptibility are complicated by contributions

50 While 1/T2 and magnetic susceptibility are not equivalent measures of t

51 ie-Weiss law observed in the low-temperature magnetic susceptibility, are consistent with the presenc

52 on spin relaxivity, magnetic anisotropy, and magnetic susceptibilities argues for a low-spin, (d(xy))

53 The alpha-phase shows a broad maximum in the magnetic susceptibility around 8 K that, coupled with a

54 tense signal on FLAIR images can result from magnetic susceptibility artifacts, CSF/vascular pulsatio

55 t is undersampled in neuroimaging because of magnetic susceptibility artifacts.

56 In addition, probing the ac magnetic susceptibility as a function of both temperatur

57 Temperature dependent magnetic susceptibility as well as field dependent magne

58 ransition is a rather abrupt decrease in the magnetic susceptibility at 210 K followed by a steady de

59 We report a paramagnetic singularity in the magnetic susceptibility at low magnetic fields that pers

60 Both clusters exhibit high solution-phase magnetic susceptibility at room temperature, suggesting

61 FM correlation with a characteristic peak in magnetic susceptibility at T'(N).

62 fy microcirculation in breast neoplasms with magnetic susceptibility-based contrast material-enhanced

63 erivatives through template destruction, and magnetic susceptibility behaviors.

64 signal phase does not depend on tissue bulk magnetic susceptibility but tissue magnetic architecture

65 deposits produces moderately high values of magnetic susceptibility, but magnetite is absent in near

66 strate a virtually universal HN form for the magnetic susceptibility chi (omega, T), a general KWW fo

67 olenoid to avoid line broadening from volume magnetic susceptibility (chi v) mismatches at both ends

68 Magnetic susceptibility (chi) data for Y(3)MnAu(5) were

69 produce a significant temperature-dependent magnetic susceptibility, chi(T), in both alpha-Pu and de

70 nstead contain paramagnetic salts with molar magnetic susceptibilities (chim) approximately approxima

71 ramagnetism characteristic of a metal with a magnetic susceptibility, chip approximately 4.5x10(-4) e

72 Orientation-dependent magnetic susceptibility (chiT) and magnetization (M(H))

73 dichroism, transmission electron microscopy, magnetic susceptibility, cobalt K-shell X-ray absorption

74 ctra, combined with quantitative analysis of magnetic susceptibilities, confirmed that the manganese

75 echo planar imaging combined with a bolus of magnetic susceptibility contrast agent; and (b) diffusio

76 ') component of the alternating current (ac) magnetic susceptibility data and by the appearance of hy

77 Thus, the variable-temperature magnetic susceptibility data are well described by a Hei

78 Variable temperature direct current (dc) magnetic susceptibility data collected in the 1.8-300 K

79 Mossbauer and magnetic susceptibility data demonstrate that this mater

80 Solid-state magnetic susceptibility data establish the complexes hav

81 The magnetic susceptibility data exhibit a negative Curie te

82 The temperature-dependent magnetic susceptibility data for 2 reveals that an excit

83 A fit to the magnetic susceptibility data for 2, gives J = -113 cm(-1

84 Variable-temperature magnetic susceptibility data for crystalline 1 and 2 est

85 lecular structures and temperature-dependent magnetic susceptibility data for several new metal compl

86 Variable-temperature magnetic susceptibility data have established 1 to posse

87 The magnetic susceptibility data in the temperature range 4-

88 Magnetic susceptibility data indicate that there is net

89 Variable-temperature magnetic susceptibility data indicates a well-isolated S

90 Variable-temperature magnetic susceptibility data indicates that the exchange

91 1/T2 (with repetition time of 700 msec) and magnetic susceptibility data led to a slight increase in

92 In this case, fitting the magnetic susceptibility data requires use of two couplin

93 Magnetic susceptibility data reveal a well-isolated S =

94 Solution-phase variable-temperature magnetic susceptibility data reveal weak ferromagnetic s

95 At very low temperatures, ac magnetic susceptibility data show the magnetic relaxatio

96 rature dependence of the resistivity and the magnetic susceptibility data suggest Ce(3+/4+) valence f

97 ange [D] = 0.44-0.72 cm(-1), and fits to the magnetic susceptibility data yield exchange coupling con

98 Structural details, magnetic susceptibility data, and Mossbauer spectra demo

99 and Mossbauer spectroscopies, together with magnetic susceptibility data, confirm the strong binding

100 facilitated accurate interpretation of their magnetic susceptibility data.

101 ge term was required for the best fit of the magnetic susceptibility data.

102 g, indicating some paramagnetism verified by magnetic susceptibility data.

103 les in temperature-dependent resistivity and magnetic susceptibility data.

104 frequency shift (fL) and quantitative volume magnetic susceptibility (Deltachi).

105 Solution magnetic susceptibility demonstrates that [Cp' '(2)Zr](2

106 arisons of microhemorrhage number, size, and magnetic susceptibility derived from quantitative suscep

107 a field mapping pulse sequence yielding the magnetic susceptibility difference between blood in the

108 t, resulting in low temperature anomalies in magnetic susceptibility, electrical resistivity, and hea

109 of information from UV-vis-NIR spectroscopy, magnetic susceptibility, electrochemistry, resonance Ram

110 y absorption spectroscopy, a chemical assay, magnetic susceptibility, electron paramagnetic resonance

111 V-vis spectroscopy, EPR, cyclic voltammetry, magnetic susceptibility, electrospray mass spectrometry

112 rum at 77 K, but it can be observed by using magnetic susceptibility, EPR at approximately 8 K, and m

113 Using variable-temperature magnetic susceptibility, EPR hyperfine coupling constant

114 rido species that on the basis of Mossbauer, magnetic susceptibility, EPR, and X-ray absorption in co

115 Calculation of magnetic susceptibility exaltation using the CSGT (conti

116 Deltar(m), Julg A, HOMA) and magnetic (NICS, magnetic susceptibility exaltation) criteria of aromatic

117 ow an excellent linear relationship with the magnetic susceptibility exaltation, Lambda, for neutral,

118 dependent chemical shifts (NICS(1)(zz)), and magnetic susceptibility exaltation, Lambda, supported th

119 cleus-independent chemical shifts, NICS, and magnetic susceptibility exaltation, Lambda.

120 eus independent chemical shifts, and through magnetic susceptibility exaltation.

121 d shifting in 4 are highly aromatic based on magnetic susceptibility exaltations.

122 The X-ray crystallographic structures, the magnetic susceptibilities from 2 to 300 K, and a theoret

123 In addition, the densities, magnetic susceptibilities, glass transition temperatures

124 us and inhomogeneous magnetic fields and the magnetic susceptibility gradient across the wave front.

125 (137)Cs), Hg, and main sediment parameters (magnetic susceptibility, grain size, dry bulk density, m

126 d syndrome had increased (more paramagnetic) magnetic susceptibilities in the basal ganglia.

127 ompare the paramagnetic contribution to cell magnetic susceptibility in erythrocytes differing in the

128 Here we address this issue by measuring magnetic susceptibility in the two most studied spin-ice

129 issue magnetic architecture--distribution of magnetic susceptibility inclusions (lipids, proteins, ir

130 Magnetic susceptibility increases with temperature above

131 erties of these nanocrystals were studied by magnetic susceptibility, magnetic circular dichroism (MC

132 tructure from X-ray and neutron diffraction, magnetic susceptibility, magnetization, and electrical r

133 ompound to be a p-type semiconductor while a magnetic susceptibility measurement shows technetium dic

134 X-ray crystallography, variable-temperature magnetic susceptibility measurement, cyclic voltammetry,

135 ition above 80 K as inferred by the dc SQUID magnetic susceptibility measurement.

136 transition near 100 K was observed in their magnetic susceptibility measurement.

137 Magnetic susceptibility measurements (SQUID) confirm the

138 variable-temperature Raman spectroscopy and magnetic susceptibility measurements a thermally accessi

139 Variable temperature magnetic susceptibility measurements agree very well wit

140 t study and comparison of the performance of magnetic susceptibility measurements and a newly propose

141 powder and single crystal X-ray diffraction, magnetic susceptibility measurements and density functio

142 identify with X-ray absorption spectroscopy, magnetic susceptibility measurements and density functio

143 Variable temperature dc and ac magnetic susceptibility measurements and field-dependent

144 Temperature-dependent magnetic susceptibility measurements and Mossbauer data

145 state of the diradicals has been studied by magnetic susceptibility measurements and theoretical cal

146 IR, UV-vis/NIR, and variable-temperature magnetic susceptibility measurements are also reported.

147 As magnetic susceptibility measurements are easily acquired

148 erized by X-ray powder diffraction, TEM, and magnetic susceptibility measurements as a function of te

149 In all cases magnetic susceptibility measurements confirm the presenc

150 Magnetic susceptibility measurements confirmed the singl

151 Dc magnetic susceptibility measurements demonstrate the pre

152 Variable-temperature dc magnetic susceptibility measurements demonstrate the pre

153 tron microscopy, Mossbauer spectroscopy, and magnetic susceptibility measurements demonstrated that i

154 Magnetic susceptibility measurements for 1 were fitted t

155 EPR and magnetic susceptibility measurements for 5 indicate that

156 opy, electronic absorption spectroscopy, and magnetic susceptibility measurements have been performed

157 ssbauer spectroscopic characterizations, and magnetic susceptibility measurements have been used for

158 Variable-temperature alternating current magnetic susceptibility measurements imply that both 1 a

159 Direct current (DC) magnetic susceptibility measurements in the temperature

160 Magnetic susceptibility measurements indicate approximat

161 Ac magnetic susceptibility measurements indicate field-depe

162 Ac magnetic susceptibility measurements indicate the absenc

163 Magnetic susceptibility measurements of all samples sugg

164 Magnetic susceptibility measurements of Na4ZnU6F30 yield

165 Significantly, magnetic susceptibility measurements of these complexes

166 Variable-temperature direct current magnetic susceptibility measurements on 2 indicate a par

167 Variable-temperature magnetic susceptibility measurements on alpha-1b indicat

168 Transport and magnetic susceptibility measurements on Li17Ag3Sn6 indic

169 etrahedral arrangement; this is evidenced by magnetic susceptibility measurements on the La(21)Fe(8)S

170 Results of ac magnetic susceptibility measurements performed on the tr

171 For [U@Bi12](3-), magnetic susceptibility measurements rationalize an unpr

172 Dc magnetic susceptibility measurements reveal a spontaneou

173 Magnetic susceptibility measurements reveal Eu(2+) groun

174 SiMe3)3)2](-), for which alternating current magnetic susceptibility measurements reveal slow magneti

175 Solid state dc and ac magnetic susceptibility measurements reveal that each Mn

176 Dc magnetic susceptibility measurements reveal the presence

177 )H NMR spectroscopy, VT crystallography, and magnetic susceptibility measurements revealed that ((Ar)

178 Solid-state dc and ac magnetic susceptibility measurements revealed that [Mn(3

179 As expected, the results of magnetic susceptibility measurements show no evidence fo

180 Both EPR and magnetic susceptibility measurements show no measurable

181 nitroxide CH3 contacts, but polycrystalline magnetic susceptibility measurements show quite small an

182 Magnetic susceptibility measurements show that 10 is a d

183 d high temperatures and variable-temperature magnetic susceptibility measurements show that a low-spi

184 X-ray powder diffraction and magnetic susceptibility measurements show that Ag(pyz)(2

185 Magnetic susceptibility measurements show that all the c

186 Magnetic susceptibility measurements show that the radic

187 Consistent with these results, AC magnetic susceptibility measurements show the molecule t

188 Variable-temperature magnetic susceptibility measurements were performed on b

189 litting parameters, and variable-temperature magnetic susceptibility measurements were used to evalua

190 agnetic relaxation barrier (determined by ac magnetic susceptibility measurements) between a negligib

191 nsuperimposed) PLY rings, and the structure, magnetic susceptibility measurements, and band structure

192 has been monitored by optical spectroscopy, magnetic susceptibility measurements, and single crystal

193 emperature crystallography, resistivity, and magnetic susceptibility measurements, and these results

194 The ac magnetic susceptibility measurements, collected in a sma

195 omenon is supported by temperature-dependent magnetic susceptibility measurements, differential scann

196 resolution synchrotron X-ray diffraction and magnetic susceptibility measurements, that cooling the r

197 Using muon spin relaxation and magnetic susceptibility measurements, we demonstrate her

198 ance spectroscopies and variable-temperature magnetic susceptibility measurements, we found that holo

199 ough comparisons with non-radical-bridged ac magnetic susceptibility measurements, we show that the m

200 havior of the iron site was characterized by magnetic susceptibility measurements, which indicate a v

201 d by single crystal X-ray diffraction and ac magnetic susceptibility measurements.

202 tively, and are confirmed by resistivity and magnetic susceptibility measurements.

203 pectroscopy, NMR, X-ray crystallography, and magnetic susceptibility measurements.

204 ition, a spin glass behavior is indicated by magnetic susceptibility measurements.

205 X-ray analysis, Mossbauer spectroscopy, and magnetic susceptibility measurements.

206 y, and variable-temperature conductivity and magnetic susceptibility measurements.

207 p'3Ln, have been characterized via dc and ac magnetic susceptibility measurements.

208 scopy, single crystal X-ray diffraction, and magnetic susceptibility measurements.

209 es, electron spin resonance data, and static magnetic-susceptibility measurements.

210 The magnetic susceptibility method probes the magnetic respo

211 Magnetic susceptibility, Mossbauer, and neutron diffract

212 Magnetic susceptibility (MS) has been proposed as an ine

213 are those with positive anisotropy of their magnetic susceptibility, namely Eu3+, Er3+, Tm3+, and Yb

214 pectra and solid-state temperature-dependent magnetic susceptibilities of 1 and 2, in addition to X-r

215 les were 2.0 and 4.5 microm in diameter with magnetic susceptibilities of 1.12 x 10(-4) and 1.6 x 10(

216 res above Tc, the model matches the measured magnetic susceptibilities of crystalline EuO, Gd, Co and

217 d to hemozoin, calculated based on the known magnetic susceptibilities of hemoglobin heme and hemozoi

218 The magnetic susceptibilities of hexanuclear gadolinium clus

219 -temperature EPR spectra of 1(1+) and 1(2+), magnetic susceptibility of 1(1+) and 1(2+), Mossbauer sp

220 The solid-state molar magnetic susceptibility of 3 obeys the Curie-Weiss law w

221 The ionothermal synthesis, structure, and magnetic susceptibility of a novel inorganic-organic hyb

222 notube, and is thought to play a role in the magnetic susceptibility of CNTs and the magnetoresistanc

223 The experimental magnetic susceptibility of F4BImNN confirms the expectat

224 The resistivity and magnetic susceptibility of the compound have also been i

225 nd (ii) using weaker magnets or reducing the magnetic susceptibility of the medium destabilizes the m

226 There is a strong correlation between the magnetic susceptibility of the salt solution, its concen

227 e heart was measured ex vivo (n=27), and the magnetic susceptibility of the tissue was estimated thro

228 The large magnetic susceptibility of this material leads to an unu

229 xample, by sensitizing the MRI signal to the magnetic susceptibility of tissue, it is starting to bec

230 ccording to their magnetic properties (e.g., magnetic susceptibilities or magnetophoretic mobilities)

231 nd 5,600 y ago, as inferred from sedimentary magnetic susceptibility, oxygen isotopes, and diatom and

232 parts per billion per day +/- 0.14 for mean magnetic susceptibility (P = .016).

233 cterized by experimental (X-ray diffraction, magnetic susceptibility, pulsed-field magnetization, hea

234 centration also was strongly correlated with magnetic susceptibility (r=0.90, P <.001, epsilonRMS=0.1

235 6) mm3 s/kg, corresponding to the net volume magnetic susceptibility (relative to water) of Deltachi

236 Mossbauer spectroscopy and ac magnetic susceptibility reveal that this complex behaves

237 Magnetic susceptibility revealed a spin-glass transition

238 gnetic circular dichroism, X-ray absorption, magnetic susceptibility, scanning electron microscopy, a

239 Analysis of the magnetic susceptibility shows that it is dominated by a

240 Our high precision measurements of the magnetic susceptibility, specific heat, and electrical r

241 the qugate requirements, as revealed through magnetic susceptibility, specific heat, and EPR.

242 Variable-temperature magnetic susceptibility studies are consistent with stro

243 biofilm inside opaque porous media with low magnetic susceptibilities such as borosilicate or soda l

244 demonstrated that with two-armed probes, the magnetic susceptibility tensor can be predicted with suf

245 This makes the orientation of the magnetic susceptibility tensor differ significantly betw

246 The axial component of the magnetic susceptibility tensor has been determined indep

247 er, it was found that the orientation of the magnetic susceptibility tensor is pH dependent (pK(a) ap

248 It also has a different magnetic susceptibility tensor, so by using both tags, t

249 that the anisotropy of the room temperature magnetic susceptibility tensor, which in turn affects th

250 The best results are obtained if the magnetic susceptibility tensors of the tags are known, b

251 ramagnetism characteristic of a metal with a magnetic susceptibility that implies a density of states

252 r composed of material having an anisotropic magnetic susceptibility that is described by a tensor wi

253 Fitting the frequency-dependent out-of-phase magnetic susceptibility to the Arrhenius equation yields

254 trum, as well as the strict adherence of the magnetic susceptibility to the Curie law in the range 30

255 animal model study demonstrate that 1/T2 and magnetic susceptibility values can be used for estimatio

256 The strongest predictor of magnetic susceptibility was age.

257 and a very large magnetic anisotropy in the magnetic susceptibility was observed.

258 The magnetic susceptibility was studied by SQUID measurement

259 f this new Co species at 1958 cm(-1) and its magnetic susceptibility were consistent with Co(I) compo

260 ontrast is attributed to local variations in magnetic susceptibility, which, at least in part, appear

261 idence for a graduated increase of live cell magnetic susceptibility with developing blood-stage para

262 ld theory yields the Curie-Weiss law for the magnetic susceptibility: X(T) infinity 1/(T - Weiss cons

263 Analysis of the ac magnetic susceptibility yields an effective spin reversa