ライフサイエンスコーパス: high-power

1 larities retain appropriate type 1 error and high power.

2 we found stronger effects of low power than high power.

3 ed at detecting reproducible phenotypes with high power.

4 eased efficiency at the posterior wall using high power.

5 s, or using lasers with short wavelengths or high powers.

6 e, we demonstrate this scheme for generating high-power (~100 GW), near single-cycle, wavelength tuna

7 (129)Xe hyperpolarizer utilizing continuous high-power (~170 W) pump laser irradiation and a novel a

8 pulmonary vein isolation was performed using high power (45 W).

9 o facilitate pulmonary vein isolation (PVI), high-power ablation may favor extracardiac damage.

10 ought to evaluate the safety and efficacy of high-power ablation using unipolar signal modification a

11 ls) across SNPs and traits, thus maintaining high power across a wide range of situations.

12 CL) comb has exhibited great potentials with high power and broadband spectrum.

13 nize micro-PMFC performance to attain stable high power and current density (38 muW/cm(2) and 120 muA

14 ic paper electrodes for supercapacitors with high power and energy densities.

15 cy, which might be highly promising for both high power and energy storage electrical devices.

16 ers (ORPs) have captured attention for their high power and fast redox kinetics.

17 udes materials that can provide simultaneous high power and high energy density.

18 LASSO performs better than GEMMA in terms of high power and low Type 1 error.

19 power management circuits, aiming to deliver high power and rectified outputs ready for serving as ba

20 Pooled analysis of RH cells showed high power and resolution and should be a useful additio

21 For example, they have high power and resolution for mapping quantitative trait

22 ths at high speeds, and work equally well at high power and single-photon levels.

23 Methods High power and standard power were compared in 4 swine a

24 Here, a high-power and durable Co-N-C nanofiber catalyst synthes

25 ow that subsets of MAGIC maize might achieve high-power and high-definition QTL mapping.

26 band gap semiconductor for high-temperature, high-power and high-frequency applications.

27 unleash the possibility of a wide variety of high-power and high-temperature solid-state lighting, la

28 The lack of high-power and stable cathodes prohibits the development

29 e emitter planar plasmonic nature allows for high-power and stable high-temperature operation.

30 (n = 524) were identified and classified as "high-power" and "low-flow" events.

31 Enjoying great safety, high power, and high energy densities, all-solid-state b

32 in the search for achieving high efficiency, high power, and low cost photo Zirconium phosphate was c

33 ever, such nano-structures can be damaged in high power applications such as heat resisted magnetic r

34 nergy storage has been driven by the rise of high-power applications such as electric vehicles, aircr

35 on and integration requirements for emerging high-power applications.

36 cts, will enable diamond FinFETs for various high-power applications.

37 a new electrode design capable of delivering high power at a low current density to increase the ther

38 cortex reflect a difference in the number of high-power beta events per trial, i.e. event rate.

39 erstand the role of intermittent, transient, high-power burst events of neural activity.

40 constant, Kelly's [Formula: see text] offers high power, but is outperformed by a novel statistic tha

41 The short charging times and high power capabilities associated with capacitive energ

42 e additional benefits of fire retardancy and high-power capability.

43 ly intuitive and quantifiable ways, enabling high-powered comparative analyses of vocal acoustics.

44 tensive bioinformatic training need to apply high-power computational analyses to critical tasks like

45 th access to a high-throughput sequencer and high-power computing can adapt this protocol with ease,

46 nal semiconductor devices face challenges in high power consumption and short channel effects when sc

47 cing increasing efficiency challenges due to high power consumption associated with managing the wast

48 of different modules, complex operation, and high power-consumption hinder their widespread applicati

49 panedinitrile]), have become synonymous with high power conversion efficiencies (PCEs) in bulk hetero

50 Extremely high power conversion efficiencies (PCEs) of approximate

51 de-coated perovskite solar cells (PSCs) with high power conversion efficiencies (PCEs), that is, grea

52 ithiophene (IDT) have become synonymous with high power conversion efficiencies (PCEs).

53 ronic quality semiconductors and have led to high power conversion efficiencies for solution-processe

54 organic halide perovskites have demonstrated high power conversion efficiencies in a range of archite

55 his is vitally important in order to achieve high power conversion efficiencies in organic solar cell

56 As a result, high power conversion efficiencies of 4.34% and 7.09% wi

57 rent density of 22.0 mA cm(-2), resulting in high power conversion efficiencies of over 13.4%.

58 eration and transport properties that enable high power conversion efficiencies to be achieved in the

59 fficients and long diffusion lengths suggest high power conversion efficiencies, and indeed perovskit

60 endous attention because of their remarkably high power conversion efficiencies.

61 The resultant devices exhibit high power conversion efficiency (22.02%) along with a s

62 Consequently, it results in high power conversion efficiency (5.01%) in the series w

63 from optimized BHJ morphology afford a very high power conversion efficiency (PCE) (19.02%) with hig

64 required for the combination of simultaneous high power conversion efficiency (PCE) and average visib

65 A high power conversion efficiency (PCE) of 11.76% is achi

66 ic solar cells (NFSM-OSCs) to achieve a very high power conversion efficiency (PCE) of 12.08%.

67 It can deliver a high power conversion efficiency (PCE) of 14.19%.

68 A very high power conversion efficiency (PCE) of 23.37% (with 2

69 air without encapsulation can still reach a high power conversion efficiency (PCE) of 7.49%, which i

70 synthesis, tunable band gap and potentially high power conversion efficiency (PCE).

71 nsport, reduced carrier recombination, and a high power conversion efficiency approaching 15% for CsP

72 High power conversion efficiency of 10.3% can be achieve

73 A small voltage loss of 0.53 V and a high power conversion efficiency of 10.58% were achieved

74 near 100% internal quantum efficiency and a high power conversion efficiency of 10.95%.

75 tandem cells are thoroughly evaluated and a high power conversion efficiency of 11.47% is achieved,

76 l-molecule solar cells have recently shown a high power conversion efficiency of 12% using low-bandga

77 c photovoltaics, contributing to a certified high power conversion efficiency of 12.6%.

78 The device with 20 mol% barium shows a high power conversion efficiency of 14.0% and a great su

79 zation of a stable all-inorganic PVSC with a high power conversion efficiency of 16.39%.

80 lective contacts, respectively, leading to a high power conversion efficiency of 18.72%.

81 carbon-wrapped VO(2)(M) nanofiber CE showed high power conversion efficiency of 6.53% under standard

82 external quantum efficiency of 71%, a record high power conversion efficiency of 9% and a fast respon

83 ciency exceeds 6 per cent, leading to a very high power conversion efficiency of more than 30 per cen

84 SC) based on PBDB-T:PTPBT-ET(0.3) achieved a high power conversion efficiency over 12.5 %.

85 e to their low-cost solution processability, high power conversion efficiency, which has recently rea

86 ng a vertical charge transport, resulting in high power conversion efficiency.

87 ng material for solar cells because of their high power conversion efficiency.

88 onic properties coupled to demonstrations of high-power conversion efficiencies (PCE) at a range of b

89 the cookstoves were measured during multiple high-power cooking tests.

90 iameter) PM concentration over the course of high-power cooking.

91 l sodium ion battery performance in terms of high-power correspondence and long-term stability and en

92 Furthermore, dexmedetomidine cannot induce high-power delta oscillations or sustained hypothermia.

93 owever, will occur in systems operating with high power densities (>5 W/m(2)) and with finite-sized h

94 mechanism combine high energy densities with high power densities and rate capabilities.

95 ch as Geobacter sulfurreducens, that produce high power densities at moderate temperatures.

96 ues greater than conventional capacitors and high power densities compared to batteries.

97 e-Retarded Osmosis (PRO) would generate very high power densities exceeding those in the conventional

98 rt charging times, long cycle lifespans, and high power densities, hold promise for powering flexible

99 energy storage devices with high energy and high power densities, long-term stability, safety and lo

100 e devices with not only high energy but also high power densities.

101 OF were able to deliver both high-energy and high-power densities, validating the promise of unmodifi

102 he MFC stack connected in series generated a high power density (1.2muW/cm(2)), which is two orders o

103 timized on small anodes in order to maintain high power density and achieve high power output in the

104 cient heat transfer mechanisms for achieving high power density and best system efficiency.

105 e electrochemical supercapacitors often show high power density and long operation lifetimes, they ar

106 Owing to their high power density and superior cyclability relative to

107 The possibility of maintaining high power density at scaled-up BMFCs was explored by ar

108 ric materials are prospective candidates for high power density electric storage applications because

109 h interest owing to their ability to provide high power density in lithium batteries; therefore, it i

110 ry was as high as 65 degrees C, leading to a high power density of 1.75 mW cm(-2).

111 rtation and surface reactions to result in a high power density of 1250 W kg(-1) with stable operatio

112 abricated using the printed films produces a high power density of 4.1 mW/cm(2) with 60 degrees C tem

113 ntain an energy density of 90 Wh kg(-1) at a high power density of 6.4 kW kg(-1) (based on the cathod

114 y efficiency of 70.6 % at 60 mA cm(-2) and a high power density of 91.5 mW cm(-2) at 100 % SOC.

115 e phase angle of -73 degrees at 120 Hz and a high power density of up to 1323 W cm(-3) with a low rel

116 emands of a high energy density as well as a high power density on their own.

117 tanding hybrid membrane can achieve a record-high power density up to approximately 56.4 W m(-2) with

118 ectrical energy storage devices due to their high power density with thousands of cycle life compared

119 advantages of excellent output performance, high power density, and good durability, and are expecte

120 te Li batteries (SSLiBs) toward high safety, high power density, and high energy density.

121 a sustainable future due to green features, high power density, and mild operating conditions.

122 they can produce a high energy density or a high power density, but it is a huge challenge to achiev

123 ems, as they present multifold advantages of high power density, fast charging-discharging, and long

124 h to sodium metal batteries with high energy/high power density, long cycle life and high safety.

125 It features high power density, self-regeneration, waste management

126 rent density necessary for devices requiring high power density.

127 ty, while at high current, it demonstrates a high power density.

128 al materials on PV performance diminishes at high power density.

129 Fabrication of high-energy-density and high-power-density packaged long-cycle-life rechargeable

130 gration of a power source that satisfies the high-power-density requirement and does not increase the

131 f ratios paving the way for a cost-effective high power device paradigm on an Si CMOS platform are de

132 ngle crystals have potential applications in high power devices due to their surperior operational st

133 Advancement of optoelectronic and high-power devices is tied to the development of wide ba

134 nsufficient for thermal management of modern high-power devices.

135 O(3) devices and advance optoelectronics and high-power devices.

136 ast positive breakdown, that is the cause of high-power discharges known as narrow bipolar events.

137 The w-LED also displays a highly durable high-power-driving capability, and its working current c

138 The high power efficiency and narrow beatnote linewidth will

139 High-power, electrically pumped quantum cascade lasers (

140 d provide important guidelines for designing high-power electrodes, especially cathodes.

141 underlies a wide range of technologies from high-power electronic switches for efficient electrical

142 ial for microelectronics thermal management, high-power electronics, and optoelectronics applications

143 rs (or electric double-layer capacitors) are high-power energy storage devices that store charge at t

144 eraged signals, beta can emerge as transient high-power 'events'.

145 Ultra-high power (exceeding the self-focusing threshold by mor

146 fectively reduced, resulting in a remarkably high power factor of 904 microW m(-1) K(-2) at 300 K for

147 The high power factor subsequently yields a record output po

148 emodeled, n-type nanowires display extremely high power factors (~500 uW m(-1)K(-2)) that are orders

149 s Li(2)TlBi and Li(2)InBi have exceptionally high power factors and low lattice thermal conductivitie

150 rmoelectric materials require simultaneously high power factors and low thermal conductivities.

151 orming LIPSS on a dielectric surface using a high power femtosecond laser.

152 hil count less than or equal to 32 cells per high power field (4.55, 1.62-12.78; p=0.0040), rectal bi

153 CD31+ capillaries per high power field (c/hpf) and NG2+ pericyte coverage were

154 ith an elimination diet (<15 eosinophils per high power field at oesophageal biopsy), and who underwe

155 macrophage also increased: HA 50.8 cells per high power field versus placebo 22.3 (P = 0.012).

156 e and a peak eosinophil count <5 eosinophils/high power field.

157 tumors is based on the number of mitoses per high powered field and the presences of necrosis.

158 gene; (3) pyuria (>=10 white blood cells per high powered field in the urine); and (4) dysuria and fe

159 s a peak count of <20 eosinophils/mm(2) in a high-power field (corresponds to approximately <5 eosino

160 post-treatment maximum eosinophil counts per high-power field (eos/hpf) and a validated dysphagia sco

161 Children with less than 15 eosinophils/high-power field (hpf) for greater than 75% of their fol

162 T-bet-positive cell counts per high-power field (hpf) were (a) positively correlated wi

163 inophil count by a mean 86.8 eosinophils per high-power field (reduction of 107.1%; P < .0001 vs plac

164 staining of their nucleus or cytoplasm per 1 high-power field 200x (grades 0-3).

165 Having less than 15 eosinophils/high-power field at any time correlated with lower fibro

166 number of 30 IgG4-positive plasma cells per high-power field in the orbital tissue is compatible wit

167 owed eosinophil infiltration of more than 40/high-power field in the stomach and duodenum, so he was

168 greater than or equal to 15 eosinophils per high-power field on light microscopy.

169 ined as >=5 polymorphonuclear leukocytes per high-power field on urethral Gram stain plus either visi

170 duce esophageal eosinophil counts to <15 per high-power field over a short-term treatment period of 4

171 cing esophageal eosinophil counts to <15 per high-power field over a short-term treatment period, wit

172 on identification of a few plasma cells per high-power field that were positive for IgG4.

173 with a histologic response (</=6 eosinophils/high-power field) after treatment.

174 ositively with disease severity (eosinophils/high-power field) and BZH.

175 cts were initial responders (<15 eosinophils/high-power field) to TCSs.

176 nophil density of 15 or more eosinophils per high-power field), from May 12, 2015, through November 9

177 ponds to approximately <5 eosinophils/median high-power field); and endoscopic remission as absence o

178 classification, counting of lymphocytes per high-power field, and morphometry is important for diagn

179 n peak eosinophil counts were 39 and 113 per high-power field, respectively (P < .05 for all).

180 tom improvement and less than 15 eosinophils/high-power field.

181 at later time points (mean+/-SEM capillaries/high-power field: 67.6+/-4.7 in control versus 44.1+/-4.

182 that demonstrates 3 or more erythrocytes per high-powered field before initiating further evaluation

183 1.0 to 5.1; P = .04) and > 5 mitoses per 50 high-power fields (AHR, 2.5; 95% CI, 1.1 to 6.0; P = .03

184 There were eight to 10 mitoses per 50 high-power fields (Fig 1D).

185 in mean esophageal eosinophil count in the 5 high-power fields (hpfs) with the highest level of infla

186 Given the ease of implementing high-power fields in CEST, this should make it easier to

187 sceptibility, R2*, and R2' and the number of high-power fields with CD163-positive (r range, 0.64-0.7

188 easurements and number of 400x magnification high-power fields with iron-containing macrophages.

189 gment detected by histopathology in >=30% of high-powered fields was strongly associated with LBW (ad

190 e in stimulated Raman scattering, generating high-power forward and backward Stokes continuous-wave l

191 solid-state lasers, necessitating efficient high-power frequency conversion.

192 netic field gradient reduces the reliance on high-power gradient drivers, lowering the overall requir

193 =0.31) showed an ulcerative perforation in a high power group patient (treated by endoscopic stenting

194 In the high power group, shorter procedure time (80 versus 102

195 Results reveal that members of the high-power group (in this case Jewish-Israelis) are more

196 ess MH can result from momentary exposure to high-power handheld laser devices.

197 frequency selectivity, narrow-linewidth and high power-handling in silicon.

198 xide (beta-Ga(2)O(3)) as a semiconductor for high power/high temperature devices and deep-UV sensors

199 y outperforms existing methods and maintains high power in a wide range of population structure setti

200 riate to obtain desirable results, including high power in discovering relevant variables.

201 Storey's q-value procedure and maintain its high power in genomic data analysis, we propose a new mu

202 studies demonstrate that our methodology has high power in identifying gene-gene associations while m

203 This advocates against the use of high power in the region neighboring the esophagus.

204 radiation dose (TRD) were determined using a high-power infrared laser (at 1064 nm) trap by single an

205 While high-power IR laser sources enable the penetration of ev

206 e generated via a Joule heating mechanism or high power laser pulses.

207 ing characterized by the rapid scanning of a high powered laser over a thin bed of metallic powder to

208 anding experimental condition imposed by the high-power laser interaction.

209 essures up to 2.6 TPa (26 Mbar) generated by high-power laser irradiation and magnetically-driven hyp

210 spatio-temporal intensity distribution of a high-power laser pulse in the focal plane at full pulse

211 Today's high-power laser systems are capable of reaching photon

212 etic fields and many other multidisciplinary high-power laser-driven processes.

213 enic solid hydrogen target in experiments on high-power laser-driven proton acceleration.

214 sent study evaluated the effect of different high-power-laser surface treatments on the bond strength

215 Compact, high power lasers with narrow linewidth are important to

216 damage of the antennas limits their use with high power lasers: this liability can be overcome by emp

217 plex free-space optics and typically require high-power lasers as local oscillators.

218 Modern high-power lasers exhibit a rich diversity of nonlinear

219 Here we report experiments that use high-power lasers to create a plasma jet that can be dir

220 tical modulator, which can directly modulate high-power lasers with intensity up to 10(16) W cm(-2) t

221 te transformation is also possible by use of high-power lasers.

222 ull-thickness MH from exposure to blue-light high-powered lasers from January 2012 to May 2014 at 2 i

223 ezers, which rely on expensive equipment and high-powered lasers that can degrade light-absorbing aer

224 roscopy and epifluorescence microscopy under high power LED illumination, followed by serial image se

225 the CTE of an InGaN-based (lambda = 450 nm) high-power LED encapsulated in polystyrene resin.

226 dissipation of an elastomer-mounted extreme high-power LED lamp and a swimming soft robot.

227 A high-power LED was used as source for the monochromatic

228 metabotropic glutamate receptors results in high-power LFOs in tg/tg but not WT mice.

229 Modern tuneable high-power light sources, such as free-electron lasers a

230 contactless environment without the need for high-power light sources.

231 sary Auger recombination characteristics for high-power light-emitting-diodes, lasers, single-molecul

232 is gaining importance because the demand for high-power lighting-emitting diodes (LEDs) is currently

233 ials may open up possibilities for designing high-power lithium ion batteries.

234 an avenue for achieving long cycle life and high-power lithium-selenium batteries.

235 can address the aforementioned problems for high-power, long-life LIB anodes.

236 pressions called keyholes, which occur under high-power, low-scan speed laser melting conditions.

237 ia requires expensive high speed cameras and high powered microscopes which is unsuitable for in vivo

238 ned as >=30 polymorphonuclear leukocytes per high-power microscopic field on a cervical Gram stain or

239 g electron microscopy, 3D nano-profilometry, high-power microscopy and UV-Vis spectroscopy.

240 d pump laser technology to be used in future high-power mid-infrared supercontinuum sources.

241 High-powered, multisite studies are needed to further ch

242 eases the laser-induced damage threshold for high-power nonlinear optical applications.Hybrid metal h

243 More importantly, pKWmEB retained the high power of Kruskal-Wallis test, and provided QTN effe

244 r proposed Bon-EV procedure can maintain the high power of the Storey's q-value procedure and also re

245 Fibre laser systems operating at high power often have multiple equilibrium states, and t

246 ted highly improved capacity retention under high-power operation ( approximately 600 mAh/g at 6.69 m

247 esting functionality of micro-PMFCs with the high-power operation of an internal supercapacitor for c

248 tion of a microbial fuel cell (MFC) with the high-power operation of an internal supercapacitor.

249 in both basic and applied sciences, such as high power optical amplification, optical communications

250 eace 1) depend on whether one belongs to the high-power or low-power party and 2) explain citizens' f

251 y based modality to ablate solid tumors with high power, or increase local permeability in tissues/tu

252 quantum cascade laser frequency comb with a high power output and narrow beatnote linewidth at room

253 ccurs when an organism produces a relatively high power output by releasing slowly stored energy almo

254 r to maintain high power density and achieve high power output in the scaled-up BMFCs.

255 This study aimed at achieving high power output of benthic microbial fuel cells (BMFCs

256 A high power output of up to 8.6 W m(-2) is obtained for a

257 the electrodes are exploited to demonstrate high power output under pulse operation.

258 -packed structure, short acclimation period, high power output, and high sensitivity to a wide range

259 numbers per sediment footprint and achieving high power output.

260 hibits low polarization, stable cycling, and high-power output (up to 10 mA/cm(2)) even in carbonate

261 ting yarn, and nonconductive binding yarn, a high-power-output textile triboelectric nanogenerator (T

262 -N system, thereby bringing all-transparent, high-power oxide electronics operating at room temperatu

263 ltrafast PCR test in less than 3 min using a high powered Peltier-based thermal cycler under bubble-f

264 ctivity patterns were linked in real-time to high power phase contrast microscopy.

265 ost half of the sample reported experiencing high-power positions.

266 Here, we present a high-powered preregistered replication of this study (N

267 Using high-power pulse electron paramagnetic resonance spectro

268 Using high-power pulsed-laser-driven shock compression, unprec

269 photoconversion of fluorescent proteins with high-power, pulsed laser illumination is negligible, thu

270 -doped mode-locked fibre lasers that produce high power pulses recently gained popularity for industr

271 Conclusions High-power PVI guided by unipolar signal modification sa

272 w-energy attenuation and patch antennas with high-power radiation at frequencies from 5.6 to 16.4 GHz

273 Herein, we show that high-power radio-frequency fields can be used in CEST ex

274 /contrast injections and steam pops, whereas high-power radiofrequency applications, drag ablations,

275 ionality also for microscopes operating in a high power regime.

276 Recently, we have developed a high-power relaxation dispersion (RD) experiment for mea

277 integrated with pump lasers because of their high power requirements.

278 uges are seldom used in the field due to the high-power requirements, size, and operational complexit

279 emperature superconductor coils(1), and such high-power resistive magnets are available in only a few

280 A compact, high power, room temperature continuous wave terahertz s

281 Here, we demonstrate the use of high-powered single-wavelength lasers for indoor horticu

282 mum gain coefficient, of 180 cm(-1), exceeds high-power solid-state amplifying media by orders of mag

283 d are subject to being damaged at adequately high power (some antennas can handle just a few milliwat

284 High power sonication on whey proteins, previously heate

285 range, the quantum-cascade laser (QCL) is a high-power source with the potential for high-frequency

286 intensity fluctuations, which are common for high-power sources.

287 In this efficiency paradox, high-powered species are inefficient in that they releas

288 utamatergic neurotransmission constrains the high-power state because blocking ionotropic or metabotr

289 The high-power state involves compensatory mechanisms becaus

290 -type (WT) or tg/tg mice does not induce the high-power state.

291 ly tunable laser architecture to demonstrate high power surface emission at a wavelength near 4.9 mum

292 (i) our samples were very large, leading to high power to detect effects that exist, and (ii) the cr

293 lection, recombination and penetrance confer high power to recover known antimicrobial resistance mec

294 zero initial stiffness, full collapsibility, high power-to-weight ratio, puncture resistant, and high

295 Recent progress in high power ultrafast short-wave and mid-wave infrared la

296 High power ultrasound (US)-enzyme assisted extraction wa

297 A high-power ultrasound (US) device was introduced at an i

298 ence was not significantly different (10% in high power versus 8% in control, P=0.74).

299 High power was not restricted to a limited few: almost h

300 Although the power literature has focused on high power, we found stronger effects of low power than

301 across all levels of the tree hierarchy with high power while accounting for the overall false positi