ライフサイエンスコーパス: renewable energy

1 ne of the promising candidates for clean and renewable energy.

2 of water represents an alternative source of renewable energy.

3 ls have developed into a promising branch of renewable energy.

4 rial fields, such as catalysis, sensing, and renewable energy.

5 to sustain global requirements for food and renewable energy.

6 roducing valuable multi-carbon products from renewable energy.

7 re management issues while delivering clean, renewable energy.

8 ed as key drivers for the development of new renewable energy.

9 plication in optoelectronics, plasmonics and renewable energy.

10 nabling cost-effective stationary storage of renewable energy.

11 arbon balance and is a critical component of renewable energy.

12 secure location for CO2 sequestration using renewable energy.

13 omising means for the production of storable renewable energy.

14 ently among the most promising strategies in renewable energy.

15 ces of sustainable biofuels in the future of renewable energy.

16 l water splitting are central to the area of renewable energy.

17 applications, including hybrid vehicles and renewable energy.

18 crease in the production of food, fiber, and renewable energy.

19 on and are poised to become major sources of renewable energy.

20 abundant and yet least harvested sources of renewable energy.

21 an increase in agricultural productivity and renewable energy.

22 or hydrocarbons, which could provide clean, renewable energy.

23 for producing clean chemicals and utilizing renewable energy.

24 ant to using ammonia to store and distribute renewable energy.

25 achieved with high penetrations of variable renewable energy.

26 ortance in many fields such as catalysis and renewable energy.

27 could provide a critically needed source of renewable energy.

28 the major challenges of electrocatalysis for renewable energy.

29 have hindered the large-scale development of renewable energy.

30 at importance in realising a future based on renewable energy.

31 ncrease in the production of sustainable and renewable energy.

32 energy storage is fundamental to the use of renewable energy.

33 h can be used to produce hydrogen fuel using renewable energies.

34 on for the long-term storage of intermittent renewable energies.

35 emical feedstocks, which uses both CO(2) and renewable energy(3-8).

36 Algae-derived biocrude oil is a possible renewable energy alternative to fossil fuel based crude

37 ucting materials play a central role in many renewable energy and bioelectronics technologies, includ

38 es play a key role in many fields, including renewable energy and catalysis.

39 r the use of biomass as a raw material for a renewable energy and chemical industries.

40 Microbial electrosynthesis is a renewable energy and chemical production platform that r

41 Our key finding is that oxygen acts as a renewable energy and electron shuttle following photoexc

42 dramatically alters the yield and quality of renewable energy and fuels.

43 In this paper, we studied on-site renewable energy and GBRSs at the system level to explor

44 Moreover, fossil fuels are non-renewable energy and will eventually be exhausted due to

45 te change, a preference for increased use of renewable energy, and egalitarian and individualistic wo

46 hancement in energy efficiency, promotion of renewable energy, and limitation of the growth of energy

47 d States with respect to using fossil fuels, renewable energy, and nuclear energy?

48 is an attractive prospect for the storage of renewable energy, and photoelectrocatalytic technologies

49 to aqueous solutions, which is important for renewable energy applications and biological imaging.

50 n reaction (ORR) is crucial for a variety of renewable energy applications and energy-intensive indus

51 nces in the development of nanomaterials for renewable energy applications are reviewed here, and spe

52 mponents of fuel cells and electrolysers for renewable energy applications.

53 ution reaction (OER) catalyst for solar fuel renewable energy applications.

54 heterostructured nanomaterials for practical renewable energy applications.

55 n used in a variety of process chemistry and renewable energy applications.

56 y is therefore of substantial importance for renewable energy applications.

57 tion of CO2 provides an opportunity to store renewable energy as fuels with much greater energy densi

58 ial unintended environmental consequences of renewable energy at large scales.

59 energy is potentially the largest source of renewable energy at our disposal, but significant advanc

60 th reactions ("green chemistry") and develop renewable energy based processes.

61 es are an important technological option for renewable energy-based decarbonization of the electricit

62 cells have emerged as promising, potentially renewable energy-based, energy conversion technologies f

63 ecules have an exciting future as sources of renewable energy because they can be made in large sizes

64 ceived much attention as possible sources of renewable energy biocatalysts.

65 e also highlight a range of applications for renewable energy, biosensing, quantum optics, high-densi

66 RFBs) could enable widespread integration of renewable energy, but only if costs are sufficiently low

67 ls, such as hydrocarbons and alcohols, using renewable energy, but the efficiency of the process is l

68 of bridging the gap between fossil fuels and renewable energy by utilizing existing coalbed natural g

69 Synthetic fuels derived from renewable energies can act as energy storage media, thus

70 Renewable energy can be generated using natural streams

71 Furthermore, intermittent renewable energy can easily power the brine utilization

72 ystem (GBRSs) that strongly considers use of renewable energy can have important environmental conseq

73 crucial to reducing uncertainty of the true renewable energy carbon cost and to maximize beneficial

74 Biogas is an attractive renewable energy carrier.

75 s, which will have broad implications in the renewable energy catalysis and electrosynthesis of valua

76 en evolution reaction (OER) is essential for renewable energy conversion and energy storage devices.

77 ef overview of various reactions involved in renewable energy conversion and storage, including the o

78 ee fields: nanocatalysts, biointerfaces, and renewable energy conversion chemistry.

79 en evolution reaction, is important for many renewable energy conversion processes.

80 The advent of renewable energy conversion systems exacerbates the exis

81 ion (ORR) is of great importance for various renewable energy conversion technologies such as fuel ce

82 and chemicals is a promising but challenging renewable energy conversion technology.

83 dioxide, an important research direction in renewable energy conversion, is discussed.

84 al energy that could complement intermittent renewable energy conversion.

85 ce hydrogen fuel is an attractive method for renewable energy conversion.

86 rgy (solar energy), denoted as EDFORD (ED-FO Renewable energy Desalination), is proposed to produce h

87 ng human activities such as the placement of renewable energy developments and the distribution of ma

88 the overall positive and negative effects of renewable energy developments before planning consent is

89 e focus this review on the impacts of marine renewable energy devices (MREDs) on underwater marine or

90 nique materials to various fields, including renewable energy devices and ultrafast sensors.

91 n several biological processes as well as in renewable energy devices, such as fuel cells.

92 ve a transformative effect on electronic and renewable energy devices.

93 ffort to improve the performance of low cost renewable energy devices.

94 the environment and engineered electrodes in renewable energy devices.

95 Implementation of the European Union Renewable Energy Directive has triggered exponential gro

96 the EPA RFS2 and 60% for the European Union Renewable Energy Directive.

97 nodules using artificial devices can enable renewable energy-driven fertilizer production.

98 from water is one promising route towards a renewable energy economy and sustainable development.

99 lar fuels could be a key element in a future renewable energy economy providing a solution to the ene

100 nd increasing application in communications, renewable energies, electronics and sensing.

101 Renewable energy, energy efficiency, and energy conserva

102 hannels play a crucial role in the fields of renewable energy, environment and biotechnology due to t

103 aterials in biomedicine, tissue engineering, renewable energy, environmental science, nanotechnology

104 Coordinated planning of renewable energy expansion and biodiversity conservation

105 However, renewable energy facilities can be land-use intensive an

106 We identified 2,206 fully operational renewable energy facilities within the boundaries of the

107 As a result of algae's promise as a renewable energy feedstock, numerous studies have used L

108 Use of renewable energy for charging and operation, ease of com

109 Using the value of grain to produce renewable energy for transport, while using the remainin

110 device as it demonstrates the generation of renewable energy from microalgae; however, inadequate el

111 is (PRO) has the potential to produce clean, renewable energy from natural salinity gradients.

112 the past decades as a potential approach for renewable energy generation.

113 ernative for efficient robust carbon-neutral renewable energy generation.

114 sion represent promising routes to green and renewable energy generation.

115 ions, ranging from passive building cooling, renewable energy harvesting and passive refrigeration in

116 growing need to store increasing amounts of renewable energy has recently triggered substantial R&D

117 The increasing human need for clean and renewable energy has stimulated research in artificial p

118 Hydrogen is an ideal carrier for renewable energy; however, hydrogen generation is ineffi

119 satile materials used in the modern field of renewable energy (i.e., in both generation and storage)

120 is a simple and attractive approach to store renewable energies in the form of chemical fuels.

121 rowing need to store an increasing amount of renewable energy in a sustainable way has rekindled inte

122 as an important strategy for the storage of renewable energy in chemical bonds.

123 an important methodology for the storage of renewable energy in chemical bonds.

124 ries (RFBs) are a viable technology to store renewable energy in the form of electricity that can be

125 Large-scale storage of renewable energy in the form of hydrogen (H2) fuel via e

126 ss with renewed interest for storing surplus renewable energy in the form of methane.

127 ree magnets are highly demanded by clean and renewable energy industries because of the supply constr

128 ation, and even the recent financial crises: Renewable-energy industries evidently suffer more than t

129 sess the extent of current and likely future renewable energy infrastructure associated with onshore

130 velopment is an increasingly popular form of renewable energy infrastructure in rural areas.

131 a promising platform molecule for the future renewable energy infrastructure owing to its high energy

132 Second, this next wave of renewable energy infrastructure represents a ~30% increa

133 lectrocatalytic processes is central to many renewable-energy initiatives.

134 ciently produced by water electrolysis using renewable energy input, would revolutionize the energy l

135 The electrolysis of water using renewable energy inputs is being actively pursued as a r

136 There is growing concern that large renewable energy installations will displace other land

137 trochemical reduction of carbon dioxide with renewable energy is a sustainable way of producing carbo

138 duction of carbon dioxide (CO(2)) powered by renewable energy is an attractive sustainable approach t

139 Transitioning from fossil fuels to renewable energy is fundamental for halting anthropogeni

140 Demand for renewable energy is rising exponentially.

141 Analysis of five National Renewable Energy Laboratory Jobs and Economic Developmen

142 and Atmospheric Administration, the National Renewable Energy Laboratory, and the International Energ

143 The renewable energy landscape will be reshaped if the curre

144 ated the Multicriteria Analysis for Planning Renewable Energy (MapRE) framework to map and characteri

145 ave considerable potential to satisfy future renewable-energy needs, but efficient and scalable metho

146 ith mainstream CO(2) mitigation options like renewable energy, nuclear power, and carbon dioxide capt

147 ial trade-offs at a potential site for tidal renewable energy off the Mull of Kintyre (Scotland).

148 ehicles, while also enabling the use of more renewable energy on the grid.

149 search for viable carbon-neutral sources of renewable energy one of the most important challenges in

150 wing renewables penetration, particularly as renewable energy policy seeks to incorporate demand-side

151 re assessed within the context of legislated renewable energy portfolio and energy efficiency standar

152 becoming increasingly critical to balancing renewable energy production and consumption(1).

153 promoting the development of cost-effective renewable energy production and conversion devices.

154 increase as more mines target materials for renewable energy production and, without strategic plann

155 While photovoltaic (PV) renewable energy production has surged, concerns remain

156 Renewable energy production is necessary to halt climate

157 Change (IPCC) Special Report predicted that renewable energy production must leap from [Formula: see

158 cell (DUFC) is an important but challenging renewable energy production technology, it offers great

159 ning areas (82%) target materials needed for renewable energy production, and areas that overlap with

160 Although biofuels present an opportunity for renewable energy production, significant land-use change

161 n, which is a proven biological strategy for renewable energy production, the herein described conduc

162 tion for robust and environmentally friendly renewable energy production.

163 l rice bran oil with high economic value for renewable energy production.

164 While the per MWh footprint of renewable energy (RE) generation is initially higher, th

165 ive research frontier in a wide range of key renewable energy reactions and devices.

166 n transport system is being investigated for renewable energy recovery in microbial fuel cells and bi

167 O(2) ) is attractive within the context of a renewable energy refinery.

168 inorganic-organic hybrid materials for clean/renewable energy related applications.

169 xpensive and earth-abundant ones for various renewable energy-related chemical processes as well as f

170 of OER electrocatalysts for applications in renewable energy-related devices.

171 across the U.S. and determine the amount of renewable energy required to offset the CO2 emissions re

172 Wide-scale exploitation of renewable energy requires low-cost efficient energy stor

173 ttracted extensive attention in the field of renewable energy research because of their remarkable ef

174 obal climate models to scales sufficient for renewable energy resource assessment.

175 Cellulose from plant biomass is the largest renewable energy resource of carbon fixed from the atmos

176 ed global attention as a clean, abundant and renewable energy resource.

177 We conclude with a super-resolution study of renewable energy resources based on climate scenario dat

178 Efforts to increase renewable energy resources in developing countries where

179 For this and other reasons, renewable energy resources including wind power are bein

180 fueling the water cycle that affects various renewable energy resources, such as wind and hydropower.

181 ssibility of large scale modifications using renewable energy resources.

182 The rapid development of the offshore renewable energy sector has led to an increased requirem

183 Halide perovskites are revolutionizing the renewable energy sector owing to their high photovoltaic

184 the primary carbon source for the burgeoning renewable energy sector.

185 study underscores the potential of strategic renewable energy siting to mitigate environmental trade-

186 sis (ED) and forward osmosis (FO), driven by renewable energy (solar energy), denoted as EDFORD (ED-F

187 o evolve oxygen gas hold a key to a range of renewable energy solutions, including water-splitting an

188 hydropower is a potentially clean source of renewable energy, some projects produce high greenhouse

189 Biogas is a renewable energy source composed of methane, carbon diox

190 t salinity gradient energy; a rather unknown renewable energy source from controlled mixing of river

191 e replacement of fossil fuels by a clean and renewable energy source is one of the most urgent and ch

192 d for the reduction of CO2 can come from any renewable energy source such as solar and wind.

193 asing crop production, and also of corn as a renewable energy source, the correct use of these insect

194 duction of an organic-rich biofeedstock as a renewable energy source.

195 conversion of plant biomass into an abundant renewable energy source.

196 Wind energy is a fast-growing and promising renewable energy source.

197 al substitute for conventional diesel, a non-renewable energy source.

198 vest the coldness from the universe as a new renewable energy source.

199 eliability, availability, and quality of the renewable energy source.

200 needed in conjunction with the deployment of renewable energy sources and their integration with the

201 deployment of solar, wind and other volatile renewable energy sources and their integration with the

202 gas driven climate change progresses, making renewable energy sources critical to future sustainable

203 c semiconductors are considered as promising renewable energy sources due to their low manufacturing

204 idely recognized as one of the most valuable renewable energy sources for the future.

205 The integration of renewable energy sources into the electric grid requires

206 Developing renewable energy sources is critical to maintaining the

207 mitigating energy poverty via decentralized renewable energy sources is proposed for rural communiti

208 of smart textiles for harvesting energy from renewable energy sources on the human body and its surro

209 ft of energy production from fossil fuels to renewable energy sources requires more efficient and rel

210 atalysts is important for the development of renewable energy sources such as solar cells.

211 and can be directly coupled with distributed renewable energy sources such as wind and solar.

212 important for the development of alternative renewable energy sources that are abundant, inexpensive,

213 he microclimatic effects of these land-based renewable energy sources to alter plant-soil carbon cycl

214 ectricity sector, as they can counterbalance renewable energy sources' intermittency and provide grid

215 hy forms of urbanisation, more efficient and renewable energy sources, and a sustainable and fairer f

216 sing demand, the introduction of distributed renewable energy sources, and the development of extensi

217 Despite efforts to develop renewable energy sources, coal use has not declined on a

218 In the search for renewable energy sources, genetic engineering is a promi

219 e latter synthesized using H2 produced using renewable energy sources, opens new scenarios to develop

220 biogeochemical cycles of biochar and future renewable energy sources, particularly for samples curre

221 n the large-scale deployment of intermittent renewable energy sources, smart power grids, and electri

222 it also serves as an energy carrier for many renewable energy sources, such as solar and wind power.

223 of Things (IoT) devices from sustainable and renewable energy sources.

224 are necessary for mitigating fluctuations of renewable energy sources.

225 rong dependence on products derived from non-renewable energy sources.

226 rs, and providing robust, decentralized, and renewable energy sources.

227 storage of energy produced intermittently by renewable energy sources.

228 d for the integration into the grid of these renewable energy sources.

229 ns of using and taking advantage of existing renewable energy sources.

230 for its potential role in the development of renewable energy sources.

231 ials is important for developing alternative renewable energy sources.

232 for grid reliability, and the integration of renewable energy sources.

233 s is needed to mitigate the intermittency of renewable energy sources.

234 uld provide a means to produce biofuels from renewable energy sources.

235 cient and that can be easily integrated with renewable energy sources.

236 scalable technologies for making fuels using renewable energy sources.

237 e strategies to produce chemical fuels using renewable energy sources.

238 rcoming the intermittency and variability of renewable energy sources.

239 is a key step for liquid-fuel production for renewable energy storage and use of CO2 as a feedstock f

240 The intimately related issue of renewable energy storage is being addressed with new str

241 olytic reactions that can potentially enable renewable energy storage, including water, CO(2) and N(2

242 R) provides great potential for intermittent renewable energy storage.

243 crop productivity, global food security, and renewable energy storage.

244 gurations and cell designs are desirable for renewable energy storage.

245 sumer electronics, transport and large-scale renewable energy storage.

246 O is important for long-term and large-scale renewable energy storage.

247 volution reaction (OER) is a key process for renewable energy storage.

248 replace platinum in technologies relevant to renewable energies, such as proton exchange membrane (PE

249 e energy requirements can be satisfied using renewable energy, such as a portion of the collected bio

250 a pivotal reaction in many technologies for renewable energy, such as water splitting, metal-air bat

251 dings open a new avenue of CO2 reduction for renewable energy supply.

252 he importance of HP as a resource-efficient, renewable energy system.

253 mands stemming from consumer electronics and renewable energy systems have pushed researchers to stri

254 reduce the processing cost and complexity of renewable energy systems.

255 ies to mitigate the environmental impacts of renewable energy systems.

256 ile enabling the integration of intermittent renewable energy technologies (such as wind and solar) i

257 icient carbon-based metal-free catalysts for renewable energy technologies and beyond.

258 Electrocatalysts are key for renewable energy technologies and other important indust

259 perceived as environmentally benign, 'green' renewable energy technologies have ecological costs that

260 Oxygen electrochemistry plays a key role in renewable energy technologies such as fuel cells and ele

261 lysts and its increasing use in emerging and renewable energy technologies such as fuel cells and ele

262 on reaction (OER) is critical for developing renewable energy technologies such as fuel cells, metal-

263 he oxygen evolution reaction (OER) is key to renewable energy technologies such as water electrolysis

264 The development of renewable energy technologies such as wind turbines form

265 The practical scale-up of renewable energy technologies will require catalysts tha

266 ER), a limiting reaction in several emerging renewable energy technologies, a deeper understanding of

267 osed use as enablers of smart grids based on renewable energy technologies, an intensive quest for ne

268 Renewable energy technologies, necessary for low-carbon

269 /GO is a promising bifunctional catalyst for renewable energy technologies, particularly regenerative

270 ion (OER) are cornerstone reactions for many renewable energy technologies.

271 imate change motivate the development of new renewable energy technologies.

272 learly an urgent need for the development of renewable energy technologies.

273 ng these systems and compare them to similar renewable energy technologies.

274 H(2)O play an important role in a variety of renewable energy technologies.

275 rals to the electrodes of bioelectrochemical renewable energy technologies.

276 ctrocatalysis and plays an important role in renewable energy technologies.

277 proved and precious metal-free catalysts for renewable energy technologies.

278 ue-added chemicals is a key goal in emerging renewable energy technologies.

279 evolution reactions are at the heart of key renewable-energy technologies including fuel cells and w

280 sitized solar cells (DSCs) are an attractive renewable energy technology currently under intense inve

281 se electrodialysis (RED) is a membrane-based renewable energy technology that can harvest energy from

282 It is crucial for leaping forward renewable energy technology to develop highly active oxy

283 ance levels fundamental to the deployment of renewable energy technology.

284 is critical to realizing the promise of this renewable energy technology.

285 cations have been envisioned in the field of renewable energies, telecommunications, and quantum elec

286 splitting as the best solution for clean and renewable energy, the worldwide efforts for development

287 orld continues to rapidly transition towards renewable energy these areas will face increasing pressu

288 urgent need to develop technologies that use renewable energy to convert waste products such as carbo

289 is of great importance for the conversion of renewable energy to hydrogen fuel via photoelectrochemic

290 Using renewable energy to recycle CO2 provides an opportunity

291 Energy efficiency, renewable energy, urban design, price- and behavioral-fe

292 her levels of energy performance and on-site renewable energy utilization, instead of fixed percentag

293 Environmental impacts of renewable energy varied dramatically between sites, in s

294 With hydrogen being seen as a key renewable energy vector, the search for materials exhibi

295 e and environmentally friendly production of renewable energy vectors and fuel sources, such as dihyd

296 arded osmosis (PRO) is a promising source of renewable energy when hypersaline brines and other high

297 Generating renewable energy while sequestering CO2 using algae has

298 an health impacts compared to those with low renewable energy, while inducing a more pronounced shift

299 vancements in power density, city-integrated renewable energy will be better suited to satisfy the hi

300 Among renewable energies, wind and solar are inherently interm