ライフサイエンスコーパス: harvesting

1 tening or short-term displacement of deaths (harvesting).

2 pplications ranging from catalysis to energy harvesting.

3 ing of cells with increasing time after cell harvesting.

4 to reduce lodging and to facilitate machine harvesting.

5 ctronics, quantum computing and green energy harvesting.

6 for open tunnel EVH compared with open vein harvesting.

7 nderstanding and further improving bioenergy harvesting.

8 mal results comparable to those of open vein harvesting.

9 9% for open tunnel EVH, and 6% for open vein harvesting.

10 the hummingbird for small-scale wind energy harvesting.

11 a narrow range of fish sizes, and rotational harvesting.

12 nships can generate threshold effects due to harvesting.

13 due to the intense metabolic activity after harvesting.

14 sms have discovered many solutions for light harvesting.

15 ielectric interfaces in electrostatic energy harvesting.

16 lue print of the regulatory network of light harvesting.

17 nal methods used for large-scale wind-energy harvesting.

18 reduction in forest carbon sink due to wood harvesting.

19 andscape and ensuring highly efficient light-harvesting.

20 eck) stored at either 4 or 9 degrees C after harvesting.

21 relatively invasive procedures for stem cell harvesting.

22 e delivery, cancer thermotherapy, and energy harvesting.

23 ed fruit dropping and facilitated mechanical harvesting.

24 es for directional charge transport or light harvesting.

25 is are highly threatened by destructive wild harvesting.

26 t could efficiently be used to enhance light harvesting?

27 The structure of the RC/YFP-light-harvesting 1 (LH1) complex shows the position of YFP att

28 ed devices offers potential for green energy harvesting (1-3) .

29 pplied to the 2DES spectroscopy of the Light-Harvesting 2 (LH2) complex of purple bacteria.

30 This device is capable of harvesting 2.8 liters of water per kilogram of MOF daily

31 munication, high-speed electronics and light harvesting (8-16) require a thorough understanding of (n

32 n-evolving catalyst (HEC) exhibit good light-harvesting ability and enhanced photoresponses compared

33 er promote the exciton dissociation or light harvesting ability of these PHJs via alternative approac

34 ble properties of the polymer, such as light-harvesting ability.

35 ease the photovoltage, and to improved light harvesting across the visible region.

36 ges in internal biophysical processes, light-harvesting adaptations (e.g., variations in leaf area in

37 Here we report a method for directly harvesting ambient mechanical energy as electric potenti

38 developed for effective biomechanical energy harvesting and active motion signal tracking.

39 Other potential applications in energy-harvesting and catalysis are discussed in brief.

40 C) water splitting, but limitations in light harvesting and charge collection have necessitated furth

41 rtunities to transform thermoelectric energy harvesting and cooling applications.

42 ld communication (NFC) technology for energy harvesting and data transmission to a smartphone.

43 evaluated at day of preharvest treatment, at harvesting and during 35days of storage at 4+/-2 degrees

44 ntially relevant to the development of light-harvesting and electron-transport devices.

45 reduce bandgap, which is beneficial to light harvesting and enhancing short-circuit current density (

46 Water vapor generation through sunlight harvesting and heat localization by carbon-based porous

47 ons in fields such as photomechanical energy harvesting and miniaturized transport.

48 (summer) and subjected to commercial growth, harvesting and processing, with subsequent shelf life st

49 from touchless interactive screens to energy harvesting and scavenging displays and massively paralle

50 new generation of noncontact magnetic-energy harvesting and sensing technologies.

51 ers an inexpensive and scalable solar energy harvesting and steam generation technology that can prov

52 photosynthesis for large-scale solar energy harvesting and storage.

53 cal processes that depend on plasmonic light harvesting and the transfer of nonequilibrium charge car

54 communication systems, as well as for energy harvesting and thermal management when translated to inf

55 ding of the impact of heterogeneity on light harvesting and thus how these systems are optimized to c

56 of improved clinical protocols for stem cell harvesting and transplantation.

57 s has a profound influence on both the light harvesting and TTA-UC efficiency.

58 e evaluation, spatial wave filtering, energy harvesting, and acoustofluidics.

59 l components of many light detection, energy harvesting, and camouflage schemes.

60 individuals with larger edible parts, easier harvesting, and decreased defenses, traits that allowed

61 nanoscale energy transport, artificial light-harvesting, and nanophotonics.

62 ht may result in overexcitation of the light-harvesting antenna and the formation of reactive compoun

63 The monomeric photosystem I-light-harvesting antenna complex I (PSI-LHCI) supercomplex fro

64 vidual pigment chromophores present in light-harvesting antenna complexes are introduced, and then we

65 Light-harvesting antenna complexes not only aid in the capture

66 aggregation state of the phycobilisome light-harvesting antenna components.

67 roteins (Hlips) that are homologous to light-harvesting antenna of plants and algae.

68 Therefore, the light-harvesting antenna system of photosystem II in thylakoid

69 effects leading to EET optimization of light-harvesting antenna systems while exploring the structure

70 lower temperature, the proteins of the light-harvesting antenna were greatly down-regulated and the p

71 ansfer components and their associated light-harvesting antenna.

72 reaction centre that is surrounded by light-harvesting antennae, which absorb the light and transfer

73 cations for the design of bio-inspired light-harvesting antennas and the redesign of natural photosyn

74 rigidly linked to each other-serve as light-harvesting antennas as well as electron donors and are f

75 -transfer dynamics and pathways in the light-harvesting antennas of various photosynthetic organisms.

76 lectromembrane desalination, but also energy harvesting applications (e.g. reverse electrodialysis).

77 t and useful design rules for QD-based light harvesting applications using the exciton-surface plasmo

78 in building multiporphyrin arrays for light-harvesting applications, their use as ligands to form in

79 ering for the design of materials for energy harvesting applications.

80 e), making them of interest for solar-energy-harvesting applications.

81 compounds studied may have utility in light-harvesting applications.

82 Comparisons are made between the range harvesting approaches and the modes of operation are des

83 The harvesting approaches to be covered include pyroelectric

84 ptive liquid repellency and programmable fog harvesting are demonstrated as application examples for

85 S), logic elements, and environmental energy harvesting, are derived from interactions of defects wit

86 We also applied this catalyst in a light-harvesting artificial leaf platform that concurrently ox

87 ydrophopbic surfaces can be applied in water harvesting, biochemical analysis and lab-on-chip devices

88 to electronic excitation energy of the light-harvesting biomolecular complexes.

89 s is precise structural control of the light-harvesting building blocks.

90 of this novel material for mechanical energy harvesting by creating a durable ferroelectret energy ha

91 ons under NIR excitation at 800 nm: 1) Light harvesting by the UCNP shell containing Nd and subsequen

92 y to static disorder to increase their light-harvesting capability in a number of ways.

93 lications such as sensors, detectors, energy harvesting cells, and batteries.

94 P (cpSRP) post-translationally targets light-harvesting chlorophyll a/b-binding proteins (LHCP) to th

95 stribution ("state transition") of the light-harvesting chlorophyll proteins between the two photosys

96 rotein family, which also includes the light-harvesting chlorophyll-binding proteins of photosystems

97 babilistic model to predict target-by-target harvesting choices that considered the rewards and movem

98 s have been synthesized with different light harvesting chromophores and transition metal binding bip

99 (Arabidopsis thaliana) belongs to the light-harvesting complex (LHC) protein family, which also incl

100 ccumulation of specific members of the light-harvesting complex (LHC) superfamily that contribute to

101 PsaL and PsaH to PSI, both forming the light-harvesting complex (LHC)II docking site of PSI.

102 sed on the structure of the main plant light-harvesting complex explains the red-shifted emission by

103 Both trimeric light-harvesting complex II (LHCII) and monomeric LHC proteins

104 oxygen-evolving photosystem II (PSII)-light harvesting complex II (LHCII) supercomplex reveals that

105 mic allocation of a mobile fraction of light-harvesting complex II (LHCII) to photosystem II (PSII) i

106 photosystem II in thylakoid membranes, light-harvesting complex II (LHCII), has a feedback mechanism,

107 Only genes for light harvesting complex proteins displayed a significant repr

108 a small amount of the protein LHCSR1 (light-harvesting complex stress related 1) is able to induce a

109 oprotective states and dynamics of the light-harvesting complex stress-related 1 (LHCSR1) protein, wh

110 Light harvesting complex stress-related 3 (LHCSR3) is the prot

111 in photosystem II, the photosystem II light-harvesting complex, and photosystem I.

112 es of chlorophyll biosynthesis and the light harvesting complex.

113 The light-harvesting complexes (LHCs), the de-epoxidation of viola

114 ccompanied by functional detachment of light-harvesting complexes and interrupted access to plastoqui

115 an application to the phycobiliprotein light harvesting complexes from cryptophyte algae.

116 ted by a reversible phosphorylation of light harvesting complexes II, depending on the redox state of

117 The main light-harvesting complexes of diatoms, known as fucoxanthin-ch

118 r half of the article, we focus on the light-harvesting complexes of purple bacteria as a model to il

119 gy transfer through extended layers of light-harvesting complexes, mimicking the modular antenna/tran

120 hylls are comparable to those of other light-harvesting complexes, we anticipate that this finding is

121 form an emerging family of exceptional light harvesting compounds.

122 t species, bee species, geographic area, and harvesting conditions.

123 The efficiency of MBF-12 for M. aeruginosa harvesting could reach 95% under the optimized conditio

124 imary forest is logged and then subjected to harvesting cycles.

125 icant effect on the analyzed parameters than harvesting date.

126 g antioxidant capacity that may change after harvesting depending on the technological processing and

127 This flexible and stretchable energy harvesting device is expected to be easily integrated wi

128 vise a novel integrated piezoelectric energy harvesting device that is structured by stacking a layer

129 wearable and stretchable electronics, energy-harvesting devices based on piezoelectricity, triboelect

130 ranging from wearable electronics and energy harvesting devices to smart prosthetics and human-machin

131 We propose here a new kind of light-harvesting devices using plasmonic nano-antenna gratings

132 is discovery into practical thin-film energy-harvesting devices, there is a need for an understanding

133 nsistors (OFETs), solar cells or other light harvesting devices.

134 on-volatile memories, logic gates and energy-harvesting devices.

135 ble materials in novel electronic and energy harvesting devices.

136 lied to the design of novel artificial light-harvesting devices.

137 Harvesting diverse portfolios of natural resources and a

138 RA harvesting does not lead to hand or forearm symptoms, ev

139 the quality attributes in guava fruits after harvesting due to increases in the antioxidant processes

140 This type of high-energy harvesting dyad is expected to open new research in the

141 true acclimatization, adaptive behaviors, or harvesting effects.

142 namic analysis reveals that the ideal energy-harvesting efficiency of this device is dictated by the

143 tion centers and drastically undermine light-harvesting efficiency.

144 and well-defined catalytic sites on a light-harvesting electrode surface.

145 work and a poly(dimethylsiloxane) matrix for harvesting energy from mechanical interactions.

146 Harvesting energy from wastewater carbonaceous substrate

147 improvement but also contribute to sunlight harvesting enhancement.

148 sus statements maintain that endoscopic vein harvesting (EVH) should be standard care in coronary art

149 o increase electroluminescence efficiency by harvesting excitons from triplet states, is used as a ho

150 Easy-to-use commercial kits for harvesting exosomes are now widely used, but the relativ

151 key design strategy in photosynthetic light harvesting, expanding the spectral cross-section for lig

152 mical insight of the effects of watering and harvesting experimental factors on the changes in concen

153 increasing the solvent polarity, these light-harvesting fibres disassemble to spherical structures wi

154 hnique offers a new approach to solar energy harvesting for high-efficiency steam generation.

155 in terms of the net present value of timber harvesting from 10 hypothetical wood-producing Forest Ma

156 ologies have remarkable potential for energy harvesting from clean and sustainable energy sources.

157 had leaves, specifically during thinning and harvesting fruit (rhinoconjunctivitis: 100% and asthma:

158 x a unique strategy to ensure that its light-harvesting function remains robust in the fluctuating pr

159 Understanding how photosynthetic light-harvesting functions in the face of these fluctuations r

160 The open vein harvesting group demonstrated marginally better endothel

161 for incubation; (v) retrieving the ichip and harvesting grown material; and (vi) domestication of the

162 a pectins extracted from the third day after harvesting have disrupted interaction between cancer cel

163 of BCs may find applications in solar energy harvesting, imaging, and sensing devices.

164 Magnetic-energy harvesting in a centimeter-sized free-standing (BEDT-TTF

165 tructed to demonstrate the function of light harvesting in a polymeric nanostructure.

166 Here we probe exciton harvesting in both luminescent and dark materials using

167 hallenge in achieving efficient solar energy harvesting in both organic solar cells and photosyntheti

168 configuration for achieving efficient light harvesting in nonfullerene-based OSCs.

169 luminescent security ink and enhanced energy harvesting in photovoltaic applications.

170 rovide remarkable efficiencies through light-harvesting in the strongly sub-wavelength device channel

171 redict and maximize combined electron-photon harvesting in ultrathin crystalline silicon solar cells.

172 Mechanical harvesting induced significant decreases in oxidative st

173 e for modeling intestinal diseases; however, harvesting intestinal tissue is invasive and directed hP

174 Energy harvesting is a topic of intense interest that aims to c

175 in biohybrid architectures for solar energy harvesting is attractive due to their global abundance,

176 In oxygenic photosynthesis, light harvesting is regulated to safely dissipate excess energ

177 ress in nanogenerators for mechanical energy harvesting is reviewed, mainly including two key technol

178 ial greenhouse gasses and forest logging and harvesting is routine, resolution is important.

179 ed as a promising alternative technology for harvesting kinetic energy.

180 that moment fishermen set traps in the gaps, harvesting large numbers of fish, mostly juveniles.

181 ranging from powering electronic devices to harvesting large-scale blue energy.Triboelectric nanogen

182 the TM complex plays a "double duty" role by harvesting light and catalyzing the chemical transformat

183 sibility of increasing spectral coverage for harvesting light using non-native genetically-encoded li

184 heterogeneous bronchiole sampling due to the harvesting location in the lung.

185 ical cells (thermocells) are of interest for harvesting low-grade waste thermal energy because of the

186 Photocatalytic systems that combine light-harvesting materials and catalysts in solution or suspen

187 ing area that aims to directly couple energy harvesting materials and devices with electro-chemical s

188 o manufacture advanced energy conversion and harvesting materials.

189 n can be tuned to offer a new class of light-harvesting materials.

190 Visible light harvesting may be enhanced in other conjugated polymers

191 practices such as sowing date and successive harvesting may be useful tools towards the production of

192 To sustainably power electronics by harvesting mechanical energy using nanogenerators, energ

193 igned to assess the impact of different vein harvesting methods on vessel damage and whether this con

194 elop efficient and sustainable approaches to harvesting microalgae for biofuel production and water t

195 s in cellular recognition, plasmonics, light harvesting, model systems for membrane protein assemblie

196 l CO2 EVH (n=100), and traditional open vein harvesting (n=100) groups.

197 and the current status of challenging light-harvesting nanomaterials, such as semiconducting quantum

198 We discuss potential harvesting of energetic carriers for solar energy conver

199 bilities to simplify loading, culturing, and harvesting of individual cells or microtissues due to th

200 ereby we combined the highly efficient light harvesting of inorganic semiconductors with the high spe

201 Proposed harvesting of polymetallic nodules in the Central Tropic

202 e acidity of Sangiovese, the overripe grapes harvesting of Romeiko, the intense body of Cabernet Sauv

203 and technological applications, such as the harvesting of solar energy and molecular electronics.

204 imately 50% of cases when combining surgical harvesting of testicular sperm and ICSI.

205 separation and transport, leading to better harvesting of the generated photoelectrons.

206 The harvesting of these electrons in practical devices rests

207 We briefly discuss harvesting of triplet excitons, which now attracts subst

208 ng and speed of nano-electronic devices, and harvesting ohmic heat for signal processing is a major c

209 ices for microwave and magnonic applications.Harvesting ohmic heat for signal processing is one of ma

210 alue of okra pods and the common practice of harvesting okra fruit while they still have a small size

211 the present study, the effect of successive harvesting on yield, chemical composition and antioxidan

212 nt at promising applications in solar-energy harvesting, optical signal multiplexing, and integrated

213 ano-enhanced plasmonics and catalysis, light harvesting, or phase transitions.

214 d tunnel EVH, open tunnel EVH, and open vein harvesting; P<0.001).

215 High-level experience with endoscopic harvesting performed by a dedicated specialist practitio

216 es C, due to the global warming and an early harvesting period.

217 7 citrus honey samples were collected during harvesting periods 2013 and 2014 from Greece, Egypt, Mor

218 igh-sensitivity spectroscopies, light energy harvesting, photocatalysis, biomedical imaging and thera

219 MX operon encoding the reaction centre-light-harvesting photosystem complex.

220 ng that PhiCpeT may also help assemble light-harvesting phycobiliproteins during infection.

221 of DeltarpoZ were not able to increase light-harvesting phycobilisome antenna like CS upon high-CO2 t

222 in energy transfer between the soluble light harvesting phycobilisome complex and membrane-bound phot

223 ation of excess energy absorbed by the light-harvesting phycobilisomes (PBS) in cyanobacteria.

224 erials, including mechanical sensing, energy harvesting, physically interacting, and so on.

225 tain anthocyanin which is an excellent light harvesting pigment needed for the generation of charge c

226 up possesses a remarkable diversity of light-harvesting pigments, and most of the group's members are

227 the production of reaction centre and light-harvesting polypeptides.

228 the assembly of higher molecular mass light-harvesting PORB::PORA complexes and photoprotection of e

229 transplantation is largely focused on their harvesting pre-transplant, expansion and infusion post-t

230 s, such as overfeeding of bees with sucrose, harvesting prior to maturity, and adulteration with suga

231 egimes, six extraction regimes and four post-harvesting processes.

232 r of major types of excited-state reactions: harvesting product via intersystem crossing; photoisomer

233 ine and porphyrin faces with promising light-harvesting properties.

234 and is necessary for the regulation of light harvesting, protection from oxidative stress and adaptat

235 , thereby activating the repression of light-harvesting protein synthesis, which is needed to control

236 supply, which permits accumulation of light-harvesting proteins and efficient light capture.

237 cular mechanics (QM/MM) simulations of light-harvesting proteins from oxygenic (LHCII) and anoxygenic

238 this region, 430 mm of seasonal (planting to harvesting) rainfall resulted in the optimum sWUE for co

239 action centers are embedded throughout light-harvesting regions of the device.

240 This links the protein dynamics to the light-harvesting regulation in plants by the carotenoids.

241 Effectiveness of molecular-based light harvesting relies on transport of excitons to charge-tra

242 r energy concentrators and associated energy harvesting, sensing and wave filtering techniques.

243 epresentation of historical patterns of wood harvesting, shifting cultivation, and regrowth of second

244 Neither choice of media or harvesting site impacted the ability of the explants to

245 Nerve specimen harvest at predefined harvesting sites (plexus roots and cords as well as majo

246 the effects of four culture media and tissue harvesting sites on explant attachment, growth, and phen

247 venues for energy absorption, conversion and harvesting, soft robotics, prosthetics and optomechanics

248 roup had significantly higher body weight at harvesting, softer texture and lower connective tissue y

249 e and bioinspiration on diverse solar-energy harvesting solutions, including artificial photosyntheti

250 Prior to harvesting stormwater, adequate treatment is necessary t

251 cular, nanotubular structures in large light-harvesting structures called chlorosomes.

252 The design of optimal light-harvesting (supra)molecular systems and materials is one

253 during fruit cold storage, regardless of the harvesting system used.

254 ltaic hybrid system and a vehicle waste heat harvesting system-that represent perhaps the most import

255 increased by more than 3 times using a light harvesting system.

256 ions for the development of electro-chemical harvesting systems are highlighted and the potential for

257 Potential light-harvesting systems based on dye-doped pi-conjugated semi

258 that is integrated into atmospheric moisture harvesting systems can work under a wide range of enviro

259 e-based architectures for panchromatic light-harvesting systems for solar-energy conversion.

260 Natural light-harvesting systems spatially organize densely packed chr

261 ucial for the development of efficient light-harvesting systems, like photocatalytic and photovoltaic

262 nforming rational design of artificial light-harvesting systems.

263 ed exciton dynamics present in natural light-harvesting systems.

264 tate energy transfer in photosynthetic light harvesting systems.

265 energy transfer process for developing light-harvesting systems.

266 rin-based nanostructures for potential light-harvesting systems.

267 o applications in opto-electronics and light harvesting; tailored enhancement of such plasmons is of

268 current and future targets when sequentially harvesting targets.

269 Our study demonstrates that harvesting techniques affect the integrity of different

270 However, energy efficient cultivation and harvesting technologies are necessary to improve economi

271 doped CQWs in LSCs for advanced solar light harvesting technologies.

272 ase are two major challenges of solar energy harvesting technologies.

273 orward a significant step toward multienergy harvesting technology.

274 evelopment of wearable and large-area energy-harvesting textiles has received intensive attention due

275 managed aquifer recharge (MAR) and rainwater harvesting] that aimed to reduce sodium levels, or exper

276 After harvesting the complex, 3' overhang regions of the TRs w

277 According to several anatomical studies, harvesting the flexor hallucis longus (FHL) tendon may c

278 Harvesting the strong specific interaction between CO an

279 becoming a powerful tool for enhanced light harvesting, the slow-photon effect, a manifestation of l

280 plication of PMN-PT nanostructures in energy harvesting, thus enriching the material choices for PNGs

281 The determination of the optimal harvesting time facilitates the production of high quali

282 erent environmental conditions (watering and harvesting time) on the metabolism of multiple rice samp

283 nd Hort16A) were collected at the commercial harvesting time, and physicochemical properties of starc

284 ecies increased nonlinearly depending on the harvesting time.

285 of declining populations, which facilitates harvesting to extinction by preventing abundance decline

286 ractions as they decline to allow profitable harvesting to extinction even with little or no price in

287 This prevents harvesting to extinction.

288 biologist, it typically takes 6 d from cell harvesting to the completion of library construction, up

289 represents the first known implanted energy-harvesting transmitter demonstrated in vivo.

290 e inevitable wounding of the roots caused by harvesting triggers an oxidative burst that spreads thro

291 play applications achieve high brightness by harvesting triplet populations via thermally activated d

292 ciencies of 83% and a small functional light-harvesting unit.During photosynthesis, energy is transfe

293 m (1) Enhancing far red-to-NIR (700~1200 nm) harvesting, up to 25%.

294 ated with the exposure to Campylobacter when harvesting urban stormwater for toilet flushing and irri

295 ection and antireflection, scattering, light harvesting, wave guiding and lensing, camouflage, and bi

296 r fisheries as the main species targeted for harvesting will show the most substantial declines in bi

297 d in value-added applications such as energy-harvesting windows.

298 vel of chlorophyll excited states from light harvesting with the rate of electron transport from wate

299 yarn, the polydimethylsiloxane-coated energy-harvesting yarn, and nonconductive binding yarn, a high-

300 Classification of samples in harvesting years was studied by performing discriminant