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1 veal the underlying mechanisms governing the resistivity.
2 es more difficult, increasing the electrical resistivity.
3 nduced low-temperature plateau of electrical resistivity.
4 atively high charge carrier mobility and low resistivity.
5 diffusion, to directly affect the electrical resistivity.
6 itical step towards achieving films with low resistivity.
7 e isotropic one, with concomitant changes in resistivity.
8 nd structure and anomalies in the electrical resistivity.
9 with most Te substituting Se has the highest resistivity.
10 d a corresponding increase in gap-junctional resistivity.
11 nal Cx40 expression increases gap-junctional resistivity.
12 raphene was processed to control its surface resistivity.
13 an order of magnitude decrease in electrical resistivity.
14 nd a 10(8)-fold decrease in room-temperature resistivity.
15 d a peak in the temperature-dependent planar resistivity.
16  electron-like at the temperature of maximum resistivity.
17 cattering, and the temperature dependence of resistivity.
18 ng the temperature-squared behavior of their resistivities.
19 s high-density (10(19) to 10(20) cm(-3)) low-resistivity (10(-4)Omega .cm) metallic germanium of prec
20   60 nm thick Cr(2)O(3) films show bulk-like resistivity (~ 10(12) Omega cm) with a breakdown voltage
21 an extremely high temperature coefficient of resistivity ~10%/K, simultaneously with a very low resis
22 between glass-forming ability and electrical resistivity(15-17).
23                                   The lowest resistivity (7.8 x 10(-4) Omega.cm) and highest carrier
24 vestigated through the temperature dependent resistivity (~8 GPa) and DC magnetization (~1 GPa) measu
25 osed to proteases results in a change of its resistivity, a quantity that can be wirelessly monitored
26 are investigated by complementary electrical resistivity, ac magnetic susceptibility and single-cryst
27 about 0.25 K, which is confirmed by the zero resistivity, AC magnetic susceptibility, and specific he
28 lled by a hysteretic anomaly in the in-plane resistivity accompanied by non-linear electrical transpo
29 more than four orders of magnitude change in resistivity across the metal-to-insulator transition.
30 ) and follow the evolution of the electrical resistivity across the nematic quantum critical point.
31 le and explained the discontinuous change of resistivity after metallization.
32 cial case of constant ohmic specific contact resistivity along the contact length, our theory has bee
33 allel contacts with varying specific contact resistivity along the contact length.
34 ple, the Dirac bands appear to provide a low resistivity along the direction in which they are highly
35                                   Using high resistivity amplifiers, (238)U(17)O2 and (238)U(18)O2 io
36  and antiferromagnetic phases with different resistivities and the origin of the GER effect is the st
37 which exhibits two orders of magnitude lower resistivity and 10 times higher electron mobility compar
38                         It exhibits T-linear resistivity and a T log(1/T) electronic specific heat in
39  of bond thickness on the evolution of piezo-resistivity and adhesion failure have been studied.
40  due to its high thermal stability, low bulk resistivity and diffusion barrier property.
41             Temperature-dependent electrical resistivity and heat capacity measurements reveal a bulk
42  Haas minimum in the longitudinal electrical resistivity and its magnitude relates as 3/5 to the heig
43 lations that reach in amplitude up to 50% of resistivity and persist to temperatures above 100 K.
44 direct ex vivo measurement of gap-junctional resistivity and quantitative connexin immunoblotting and
45  intrinsic challenges (e.g., high electrical resistivity and reactivity in air).
46                The sign reversal of the Hall resistivity and Seebeck coefficient in the field, plus t
47      A clear relationship between electrical resistivity and selectivity is established across a rang
48                       It is notable that the resistivity and sensitivity of the composite films can b
49 a direct optical band-gap (2.49 eV), had low resistivity and sheet resistance (7.15 x 10(-4) Omega-cm
50 2) is investigated by combining diffraction, resistivity and spectroscopy techniques under high-press
51                                      Because resistivity and spin excitation anisotropies both vanish
52 B(12) and ZrB(12), respectively, as shown by resistivity and superconducting quantum interference dev
53 an order of magnitude lower room temperature resistivity and superior chemical stability, compared to
54 ative agreement between the topological-Hall resistivity and the topological-charge density, our quan
55 re dependent Seebeck coefficient, electrical resistivity and thermal conductivity measurements were p
56 eads to a drastic decrease in the electrical resistivity and thermopower simultaneously with a large
57 in few-layer WSe2 thereby locally tuning the resistivity and transport properties of the material.
58                                  The average resistivity and work function of epitaxial Cu3Ge thin fi
59 ur-fold symmetry), so one expects a constant resistivity and zero transverse voltage, for every varph
60 We report on a low-temperature upturn in the resistivity and, at temperatures below this resistivity
61                            Optical band gap, resistivity, and Hall-effect measurements together with
62 mperature T(N) ( < T(s)) and create in-plane resistivity anisotropy above T(s).
63 (*) ~ 28 T characterized by a large in-plane resistivity anisotropy emerges.
64 e T is Co or Ni) iron pnictides, an in-plane resistivity anisotropy has been observed.
65 d is characterized by a substantial in-plane resistivity anisotropy in the presence of a small in-pla
66 rface, which results from a hitherto-unknown resistivity anisotropy induced by an in-plane magnetic f
67 lations, which naturally explains the strong resistivity anisotropy or 'electronic nematic' behaviour
68 rable with reported values of the electrical resistivity anisotropy.
69  transition, again similar to the electrical resistivity anisotropy.
70 s corresponding to the onset of the in-plane resistivity anisotropy.
71  A wrapped burial had consistent small, high-resistivity anomalies for four years, then large high-re
72 ys showed a naked burial produced large, low-resistivity anomalies for up to four years, but then the
73 nsport measurement in these devices show two resistivity anomalies near 250 K and 200 K which are lik
74 ty anomalies for four years, then large high-resistivity anomalies until the survey period end.
75                    The measured strength and resistivity are compared to isotropic tungsten-copper co
76 usceptibility, magnetization, and electrical resistivity are studied for these new layered chalcogeni
77  have measured the angle-resolved transverse resistivity (ARTR), a sensitive indicator of electronic
78 ved performance was attributed to the higher resistivity as well as enhanced spin hall angle of the C
79 al regime also features a Planckian linear-T resistivity associated with a T-linear scattering rate a
80 ilm doped with 2.25 at.% W showed the lowest resistivity at 0.034 Omega.cm and respectable charge car
81 tum criticality, the observation of T-linear resistivity at a nematic critical point also raises the
82  the edgeless Corbino geometry in which case resistivity at the neutrality point increases exponentia
83 imetals, giving rise to their small residual resistivity at zero field and subject to strong scatteri
84 imation under cyclic tensile stresses from a resistivity baseline.
85 (AEM) sensor to produce extensive imagery of resistivity beneath Taylor Valley.
86 ode between different bands-we show that the resistivity bound becomes [Formula: see text] The coeffi
87 g atomic layer deposition decreased the film resistivity by seven orders of magnitude to values as lo
88     The diffusion constant is converted to a resistivity by using the Nernst-Einstein relation.
89 rnal magnetic field induced colossal drop of resistivity (by factor 10(4)) at B ~ 4T with further gig
90 Vanadium dioxide (VO2) with its unique sharp resistivity change at the metal-insulator transition (MI
91  T30/1, P40/2, T70/2 and PA/2 showed maximum resistivity change.
92        The method indicates that the in-situ resistivity changes and the rate of the changes with str
93                                   Electrical resistivity close to the bulk (~2-time) was obtained wit
94 e, we observe a dissipationless longitudinal resistivity close to zero, accompanied by a well-develop
95                       The two states display resistivity contrast, which is exploited in phase-change
96 tallic parts of the geometry consists of low resistivity copper traces.
97 turn at low temperature, measurements of the resistivity, critical current density and magnetic-field
98  by the presence of an anomalous peak in the resistivity curve simultaneously with a reversal of the
99  pseudogap temperature scale observed in the resistivity curves.
100  (SdH) oscillations were identified from the resistivity data, revealing the existence of two Fermi p
101 %; while the optical bandgaps and electrical resistivity decrease with increasing substrate temperatu
102 py and resistivity measurement revealed that resistivity decreased with pressure and dramatically dro
103                  Furthermore, the electrical resistivity decreased with pressure but exhibited differ
104                        "Strange metals" with resistivity depending linearly on temperature T down to
105 dences of the specific heat and longitudinal resistivity display non-Fermi liquid behavior.
106                                          The resistivity displays the Arrhenius-type activated behavi
107 in the channel, while the two-terminal sheet resistivity displays two-dimensional variable-range hopp
108 ivity ~10%/K, simultaneously with a very low resistivity down to 0.001 Omega.cm, making these NWs pro
109 n enhancement in the coefficient of the T(2) resistivity (due to electron-electron scattering) on app
110 uced differences in vertical bulk electrical resistivity (ER) profiles and influenced the temporal ev
111                                   Electrical Resistivity (ER) surveys showed a naked burial produced
112                                    Anomalous resistivity evolution and the participation of spin in t
113      Over a wide range of doping, we observe resistivities exceeding the Mott-Ioffe-Regel limit with
114                                         That resistivity exhibits a linear temperature dependence and
115 h the enigmatic pseudogap phase ends and the resistivity exhibits an anomalous linear dependence on t
116      We obtain a rigorous upper bound on the resistivity [Formula: see text] of an electron fluid who
117  its weakly temperature-dependent electrical resistivity, graphene has failed to challenge the state-
118 sical property measurement results including resistivity, Hall coefficient (RH), and specific heat ar
119 ay diffraction, charge transport (electrical resistivity, Hall effect, magnetoresistance), magnetic m
120 temperature, moisture, flexibility and water resistivity has been investigated on the developed GOCs
121 sulfate (PS), and low temperature electrical resistivity heating (ERH), to activate PS, to achieve re
122                        Time-lapse electrical resistivity imaging (ERI) was used to monitor soil moist
123                 The SL crystals have varying resistivity in all three directions, confirming both RP
124 les and experimental study of the electrical resistivity in aluminum and copper samples under pressur
125                      Controlled switching of resistivity in ferroelectric thin films is demonstrated
126  thermal conductivity and highly anisotropic resistivity in Li(1-x)Sn(2+x)As2.
127 -insulator transition temperatures and lower resistivity in narrower strips.
128 ies, such as multiple sign reversals of Hall resistivity in normal and mixed states, have been reveal
129 ncurrently achieve large thermopower and low resistivity in novel semimetals is investigated.
130  measurements are reported, which allows the resistivity in the cortex, ventricle, fiber tracts, thal
131                                 In contrast, resistivity in the Hall bar geometry saturates to values
132 usceptibility, specific heat, and electrical resistivity in the layered compound YFe2Al10 demonstrate
133                        Extended areas of low resistivity in the subsurface alongshore combined with h
134 dict the pressure response of the electrical resistivity in these metals.
135 f adhesion failure to the evolution of piezo-resistivity in varying mechanical loads.
136 re we present a method for studying material resistivity in warm dense plasmas in the laboratory, whi
137 actor 10(4)) at B ~ 4T with further gigantic resistivity increase (by factor 10(4)) at 15T.
138 gnetic field, both the longitudinal and Hall resistivity increase considerably and display a metal-in
139 te that, at room temperature, the electrical resistivity increases by around 4 folds from that of bul
140 ic fields, that is, unlike most metals whose resistivity increases under an external magnetic field,
141     These methods do result in samples whose resistivity increases with decreasing temperature, simil
142                                          The resistivity increases with decreasing temperature, sugge
143 ascular density decreased while the arterial resistivity index (RI) increased, followed by a decline.
144                    After e-cigarette vaping, resistivity index was higher (0.03 of 1.30 [2.3%]; P < .
145                           Precuff occlusion, resistivity index, baseline blood flow velocity, and SvO
146                     The changes in the piezo-resistivity induced by the CNTs have been monitored in s
147 s(-1) while the twisted zwitterion is a high resistivity insulator.
148                  We show that the electrical resistivity is 6 nOmega cm at 2 K with a large mean free
149                                Intracellular resistivity is a linear sum of that offered by gap junct
150                                          The resistivity is determined by matching the plasma physics
151                                 The inferred resistivity is larger than predicted using standard resi
152 l CDW fluctuations at high temperatures, the resistivity is linear up to highest measured T = 300 K a
153 mically divergent and that of the electrical resistivity is linear.
154                     At room temperature, its resistivity is low (0.36-0.49 muOmegam) and - like a met
155 ntration, a more significant modification in resistivity is observed for tensile-strained SmNiO(3), s
156 gap formation, whereas linear-in-temperature resistivity is observed in the normal states of the high
157 of other 'strange metals', in which T-linear resistivity is observed over an extended regime in their
158  the half-filled insulator, a sudden drop in resistivity is observed with decreasing temperature.
159 Cx43) in determining human atrial myocardial resistivity is unknown.
160 ials systems, regardless of their electrical resistivity, is developed.
161 tal with large spin diffusion length and low resistivity like Cu or Al.
162 Near this composition these alloys exhibit a resistivity linear in temperature to 2 K, a linear magne
163                Thermal expansion, electrical resistivity, magnetization, and specific heat measuremen
164 the weighted mobility, rho is the electrical resistivity measured in mOmega cm, T is the absolute tem
165  In addition, the low-temperature electrical resistivity measurement indicates that 3R-MoN(2) behaves
166 ro X-Ray diffraction, Raman spectroscopy and resistivity measurement revealed that resistivity decrea
167  lack of obvious superexchange pathways, and resistivity measurement shows that SrLa10Ir4O24 is an in
168  combined Seebeck coefficient and electrical resistivity measurement systems, it is now easy to measu
169 nique with Raman spectroscopy and electrical resistivity measurement to study Bi(Ni1/2Ti1/2)O3 perovs
170                               The electrical resistivity measurement with V shape change signals the
171                                 Reproducible resistivity measurements are reported, which allows the
172                                 Two-probe dc resistivity measurements conducted within the DAC show t
173          Direct magnetization and electrical resistivity measurements demonstrate that the supercondu
174 lity from Seebeck coefficient and electrical resistivity measurements is introduced, which gives good
175  K/GPa and 0.75 K/GPa from magnetization and resistivity measurements respectively.
176                    The temperature-dependent resistivity measurements revealed pressure-induced metal
177                               Single crystal resistivity measurements show thermally activated behavi
178                Comparison with time-resolved resistivity measurements suggests that the collapse of s
179 irst-principles calculations, and electrical resistivity measurements were carried out under high pre
180                                   Electrical resistivity measurements were correlated with dislocatio
181  absorption and vibrational spectroscopy, dc resistivity measurements, and optical observations.
182 ing in situ temperature-dependent electrical resistivity measurements, Hall effect measurements, tran
183 e estimated using Hall effect and electrical resistivity meausrements, which are are routinely perfor
184  not significantly change with extracellular resistivity, membrane capacitance, or membrane resistanc
185  magnetoresistance at temperatures above the resistivity minimum is always positive.
186  resistivity and, at temperatures below this resistivity minimum, an unusual magnetoresistance which
187 h the measured charge carrier concentration, resistivity, mobility, and Seebeck coefficient, which sh
188  electromagnetic survey provides a 3D global resistivity model of an active volcano.
189 vity is larger than predicted using standard resistivity models, suggesting that these commonly used
190 est Antarctica in this region exhibits a low resistivity, moderately hydrated asthenosphere, and conc
191 s transduced with high gain (up to 200) into resistivity modulation for graphene.
192                                 A reversible resistivity modulation greater than eight orders of magn
193 lastic P- and S-wave velocity and electrical resistivity monitoring during controlled laboratory CO(2
194                               The electrical resistivities of all 12 compounds exhibit metallic tempe
195 of the longitudinal (rhoxx) and Hall (rhoxy) resistivities of disordered 2D amorphous indium-oxide fi
196 y with donor ionization energy of 20 meV and resistivity of 10(-4) Omega.cm.
197 howing a porous multi-layer structure with a resistivity of 102.4 +/- 7.3 Omega/square.
198 4Cl0.06 alloy has over tenfold improved bulk resistivity of 3.6 x 10(9) Omega cm.
199 ods show single-crystal structure with a low resistivity of 8.58 x 10(-5) Omega cm.
200 od was used in this study to extend the bulk resistivity of [Formula: see text] to a regime where the
201                               The electrical resistivity of a poly(3,4-ethylenedioxythiophene):poly(s
202 re we use X-ray polarimetry to determine the resistivity of a sulphur-doped plastic target heated to
203 coefficient of coatings, MIM interfaces, and resistivity of Ag layers as a function of the Ag-TiAlN b
204            With Gd doping the anomalous Hall resistivity of Co, Fe and CoFe increases significantly w
205                                          The resistivity of each bolometer-antenna changes as a funct
206 tures and report 8% change in the electrical resistivity of FeRh films.
207 detected that are inconsistent with the high resistivity of glacier ice or dry permafrost in this reg
208 rature and magnetic field dependences of the resistivity of LNO at low temperatures are consistent wi
209 , the sputter-grown V films also have a high resistivity of more than 200 muOmegacm.
210 0 mum long, 35 mum wide and 2 mum thick with resistivity of order 1.316x10(-3) Omega cm obtained by u
211                                          The resistivity of our beta-GeSe crystals measured in-plane
212 tration, leading to the measured increase in resistivity of our chemiresistive biosensor.
213 tals' optical loss, and the inefficiency and resistivity of semiconductor spin-based emitters at room
214 dentifying the right drug based on the chemo-resistivity of the cancer cells is not available and it
215                                          The resistivity of the composites is highly sensitive to str
216                 For instance, the electrical resistivity of the ECA specimen on a pulp paper (6 x 10(
217       This results in a dramatic increase in resistivity of the films from 0.0061 Omega*cm to 0.59 Om
218 nce measurements were performed to determine resistivity of the intracellular pathway (Ri), which cor
219 Several parameters that control the electric resistivity of the system were evaluated, and the cone t
220           Here we show that the mobility and resistivity of this material undergo a transition from b
221 used models will not adequately describe the resistivity of warm dense plasma related to the viscosit
222 atures, hBN is outperformed by graphene, the resistivity of which is estimated to fall below 10(-3) O
223 on barrier layer with low electrical contact resistivity, on a high-zT Se-doped AgSbTe2 substrate.
224 ers we reproduce the experimental optics and resistivity over a wide range of doping and normal-state
225 erate the dielectric strength and electrical resistivity over multiple cycles of tree formation and h
226 hard radiation and high intrinsic electrical resistivity, over 10(11) Omega cm.
227  to the layers (10(11) Omega cm) but a lower resistivity parallel to them (10(7) Omega cm).
228  Dark measurements for RP crystals show high resistivity perpendicular to the layers (10(11) Omega cm
229 o zero, accompanied by a well-developed Hall resistivity plateau proportional to half of the Fermi wa
230 e-scales that may be attributed to the local resistivity profile at the target rear.
231        Measurements of brain slices revealed resistivity profiles correlated with the local density o
232 e are no precise measurements of cytoplasmic resistivity, R(c).
233 arrier density to reach the maximum residual resistivity ratio (RRRrho300K/rho5K) of 7.6.
234 N) facility require maintaining the residual resistivity ratio RRR of conductors above 150 to ensure
235                              The composite's resistivity reaches a maximum value in the relaxed state
236 d the ratio of the out-of-plane and in-plane resistivity reaching ~670.
237                     At the highest pressure, resistivity reduced by five orders of magnitude and the
238                            More importantly, resistivity remained much lower than its original value,
239  resistivity, while the other grain with low resistivity reorients to align its a-axis more parallel
240 alue is consistent with the large electrical resistivity reported for beta-W in literatures and in th
241 i(1.5)Sb(0.5)Te(1.7)Se(1.3) with the highest resistivity reported.
242                                   Electrical resistivity results indicate that Pn = As, Sb, and Bi ar
243 sity structure, approximated from electrical resistivity, results in a geodynamic model that successf
244                            Both the residual resistivity rho(0) and the Sommerfeld coefficient gamma(
245                     Second, the longitudinal resistivity rhoxx shows a linear magnetic field dependen
246  the assumptions that the specific cytosolic resistivity (Ri) and muscle fibre volume remained consta
247                      Specific gap-junctional resistivity (Rj) correlated not only with Western immuno
248                 The peculiar low-temperature resistivity saturation in the 4f Kondo insulator (KI) Sm
249                 Under pressure, P = 17 kbar, resistivity saturation temperature increased up to 1,2 K
250                                              Resistivity saturation was observed in the absence of ma
251 g models are discussed in attempt to explain resistivity saturation, dramatic influence of magnetic f
252 ndidate that also exhibits a low-temperature resistivity saturation.
253 ltilayer film, we show that topological-Hall resistivity scales with the isolated-skyrmion density ov
254 key characteristics of bad metals: anomalous resistivity scaling consistent with T-linear behavior, t
255 ancies, boron interstitials, etc.), the bulk resistivity shows an intrinsic thermally activated behav
256                             The longitudinal resistivity shows semimetallic behavior.
257                                          The resistivity signature of glacier ice at the site (100-15
258 body effects, and find that the Coulomb drag resistivity significantly increases for temperatures <5-
259                                          The resistivity structure surrounding the sliver fault sugge
260                         Variable temperature resistivity studies reveal a transition from a semicondu
261 iated with human right atrial gap-junctional resistivity such that increased total, gap-junctional, a
262 etals, primarily because the high electrical resistivity suppresses the electronic thermal conductivi
263  revealed by seismic velocity and electrical resistivity surveys from three landscapes.
264               The temperature coefficient of resistivity (TCR) and pressure sensitivity (eta(P)) are
265                We applied the direct current resistivity technique to image conductivity changes in s
266          At the critical field, Hc, the full resistivity tensor is T independent with rhoxx(Hc) = h/4
267  analysis shows much larger topological-Hall resistivity than the prevailing theory predicts for the
268 e critical point itself, a strictly T-linear resistivity that extends over a decade in temperature T.
269 anges in their microstructure and electrical resistivity, the large spin Hall angles measured are fou
270 terials, exhibit a linear in temperature (T) resistivity, the origin of which is not well understood.
271  nanowire and bulk silver, a unified thermal resistivity (Theta ~ T/k ) is used to elucidate the elec
272 data reveal a lithosphere of high electrical resistivity to at least 150 km depth, implying a cold st
273 sitive to protease digestion and had greater resistivity to nanoindentation by atomic force microscop
274 y with monolayer hBN, for which we measure a resistivity to proton flow of about 10 Omega cm(2) and a
275                      We conducted electrical resistivity tomography (ERT) surveys at two sites on the
276 aluate groundwater discharge, and electrical resistivity tomography (ERT) was used to examine subsurf
277 onstrate a pathway for harnessing the abrupt resistivity transformation across the insulator-to-metal
278 toresponse, whereas the SL materials exhibit resistivity trends that are dominated by ionic transport
279        Measurements of the specific heat and resistivity under pressure demonstrate that the ferromag
280 ring results in a decrease in the electrical resistivity under pressure, which is more pronounced for
281                             LPS can decrease resistivity up to a factor of ~10,000, resulting in valu
282                                          The resistivity upturn turns out to be qualitatively contrad
283 as evidenced by a magnetic field-independent resistivity upturn with a clear transition from logarith
284 l films, which exhibit a low-temperature (T) resistivity upturn with a pronounced T(1/2) dependence,
285 nprecedented insights into the origin of the resistivity upturn.
286 e Cu matrix, with control of the interfacial resistivity using the MWCNT/Cr7C3-Cu system.
287 ency method this allowed obtaining intrinsic resistivity values of brain tissues and structures with
288 urements confirm that it is insulating, with resistivity values similar to those of boron nitride gro
289 h Cx43 expression showed no correlation with resistivity values, the proportional expression of the 2
290 stals, where signature of ZrTe3 CDW order in resistivity vanishes.
291 and inorganic nanowires (concentration), and resistivity was within the lower ranges reported for mod
292                       These calculations for resistivity were based on electron-phonon scattering.
293       Regional-scale zones of low subsurface resistivity were detected that are inconsistent with the
294 idate the origin of extremely low electrical resistivity which does not compromise the Seebeck coeffi
295 conditions in the grain with high electrical resistivity, while the other grain with low resistivity
296 rlies an increase in human atrial myocardial resistivity with age, this relationship was investigated
297 rical resistance and nonmonotonic changes in resistivity with strain.
298  influence of magnetic field and pressure on resistivity with the focus on possible manifestation of
299 xide (rGO) layer that changed its electrical resistivity with the temperature.
300  amorphous with a weak temperature-dependent resistivity with values ranging between 150 and 300 [For

 
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