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1 vital strategy for renewable and sustainable clean energy.
2  gas (H(2)) represents a potential source of clean energy.
3 ssity to facilitate a fair transition toward clean energy.
4  instruments to accelerate the transition to clean energy.
5 ntial of wind to serve the global demand for clean energy.
6 rategies, to photo- and electrocatalysis for clean energy.
7 r cells, improving performance and advancing clean energy.
8 photoelectrochemical devices and systems for clean energy.
9  multi-objective scheduling optimization for clean energy.
10 efficiently utilize terrestrial emission for clean energy.
11 ly increasing due to the surging demands for clean energy.
12 as bioengineering, flexible electronics, and clean energy.
13 purred the search for alternative sources of clean energy.
14  layer) has been investigated as a source of clean energy.
15  overpotentials holds tremendous promise for clean energy.
16 treating industrial wastewater and producing clean energy.
17  plasmas and aims to deliver sustainable and clean energy.
18 sing candidate in the quest for sustainable, clean energy.
19 eactors holds the promise of sustainable and clean energy(1).
20 ing infectious disease control, facilitating clean energy access, reducing air pollution, tackling ma
21                       Thanks to the push for clean energy and advances in characterization capabiliti
22  essential for the sustainable production of clean energy and bulk chemicals, but is still challengin
23 -gases of high importance in the contexts of clean energy and climate alteration, respectively--in ex
24  globally, but also offers a way to generate clean energy and ease the challenges associated with hyd
25 gard to next-generation technologies such as clean energy and environmental sustainability.
26 s to obtain higher catalytic activity toward clean energy and fuel conversion.
27 itting is a promising avenue to sustainable, clean energy and fuel production.
28            The absence of reliable access to clean energy and the services it provides imposes a larg
29 enewables can enable access to decentralised clean energy and, coupled with interventions to increase
30 he most effective and sustainable carrier of clean energy, and liquid-phase hydrogen storage material
31 e manufacturing practices in EDM in terms of clean energy, and responsible consumption and production
32 sing water oxidation catalysts for practical clean energy application.
33 ogen from methane and light hydrocarbons for clean energy applications remains a technical challenge
34 evices, such as sensors and photovoltaics or clean energy applications such as hydrogen production.
35 has great potential for use in aerospace and clean energy applications, but its supply is currently l
36                 Molten salts are crucial for clean energy applications, yet exploring their thermophy
37 torage is in high demand for next-generation clean energy applications.
38 inide complexes are critical for a wealth of clean-energy applications.
39                  Adoption studies of ICSs or clean energy are scarce, scattered, and of differential
40 pulation, disadvantaged by lack of access to clean energy, are exposed to high levels of indoor air p
41                                      To make clean energy available to all people is the long-term go
42 sence of heavy metals, as well as the use of clean energy, available oxidant, and a common solvent ar
43 ugh electrocatalysis holds great promise for clean energy, but its large-scale application relies on
44                     But a full transition to clean energy can only be realized if numerous challenges
45                                          The clean energy carrier, hydrogen, if efficiently produced
46 onal design of new electrocatalysts for both clean energy conversion and green oxidizer production.
47 ign and synthesis of COF-based catalysts for clean energy conversion and storage are presented.
48 sis of noble-metal-free electrocatalysts for clean energy conversion applications; however, there are
49 lution reaction (OER) is a key bottleneck in clean energy conversion due to sluggish kinetics and hig
50 rd a better understanding of a series of key clean energy conversion reactions including oxygen reduc
51                        Today sustainable and clean energy conversion strategies are based on sunlight
52     Electrocatalysis plays a central role in clean energy conversion, enabling a number of sustainabl
53 ovide an overview of applications of REEs in clean energy conversion, especially their use as next-ge
54  major applications to organic reactions and clean energy-conversion systems.
55 % below 2005 levels by 2035 with accelerated clean energy deployment.
56 c viability of low temperature fuel cells as clean energy devices is enhanced by the development of i
57 nge membranes (AEMs) play a critical role in clean energy devices, and optimizing their performance r
58 regenerative fuel cells, and other important clean energy devices.
59 regenerative fuel cells, and other important clean energy devices.
60 ogies ranging from printable organs to novel clean energy devices.
61                      Efficient and practical clean-energy devices for electrochemical or photoelectro
62 global and U.S. domestic effort to develop a clean energy economy and curb environmental pollution in
63  (CO(2)RR) is a promising technology for the clean energy economy.
64 orld's all-purpose power from wind in a 2030 clean-energy economy.
65  Hydrogen is increasingly being discussed as clean energy for the goal of net-zero carbon emissions,
66        In the effort to generate sustainable clean energy from abundant resources such as water and c
67 reen technologies to provide clean water and clean energy from abundantly available renewable resourc
68 obes provide a platform for the synthesis of clean energy from renewable resources.
69 nologies essential to a circular economy and clean energy future.
70 hemical performance, aiming at an affordable clean energy future.
71                       In the transition to a clean-energy future, CO2 separations will play a critica
72 , to boost its storage capacity toward these clean energy gases.
73  These energy sources, often referred to as "clean energy", generate no operational onsite GHG emissi
74 oaches in support of DOE missions related to clean energy generation and environmental characterizati
75  actively pursued owing to its importance in clean energy generation and storage.
76                    One prospective method of clean energy generation is the electrochemical hydrogen
77  A LIFE-based fleet of power plants promises clean energy generation with no greenhouse gas emissions
78 ogress towards a sustainable future based on clean energy generation, transmission and distribution,
79 ields from catalysis to electrochemistry and clean energy generation.
80 sion' was publicly heralded as the future of clean energy generation.
81 eir full potential and aligning with broader clean energy goals.
82 mploying renewable materials for fabricating clean energy harvesting devices can further improve sust
83 lling alternatives to liquid electrolytes in clean energy-harvesting and -storage technologies.
84 on emissions, the demand for sustainable and clean energy has now become more important than ever.
85                                Generation of clean energy in a viable manner demands efficient and su
86 lements (REEs) are critical to high-tech and clean-energy industries; however, their bioavailability
87 lts underscore that environmental impacts of clean energy infrastructure merit scrutiny to ensure tha
88 mperative for the sustainable development of clean energy initiatives.
89 ion conditions with excellent efficiency and clean energy input.
90 ord high of 10.5% in 2021 (indicator 3.1.1); clean energy investment exceeded fossil fuel investment
91                        In addition, although clean energy investment grew by 10% globally in 2023-exc
92                      Supporting this, global clean energy investment increased by 15% in 2022, to $1.
93                                              Clean energy investment is 38% lower than fossil fuel sp
94 -harvesting is crucial to the development of clean energy materials and devices.
95 and cryogenic electron microscopy in probing clean-energy materials are presented and emerging opport
96 a is experiencing a rapid transition towards clean energy, nevertheless, solid fuel combustion remain
97 in the development of, access to, and use of clean energy, only 2.3% of electricity in low HDI countr
98 ic SDG targets, such as increasing access to clean energy or improving health outcomes, rather than e
99 ation and demand lead to underutilization of clean energy, particularly in industrial parks with over
100                                              Clean energy plans must include safer, more sustainable,
101  are one of the most prevalent and impactful clean energy policies implemented by states in the Unite
102                      Despite the continent's clean energy potential, electric vehicle adoption faces
103 anic synthesis, as well as those involved in clean energy processes such as production of hydrogen an
104 rodes are essential for many devices used in clean energy production and consumer electronics.
105 ations, as wastewater treatment coupled with clean energy production and power supply systems for iso
106  fossil-fuel technologies has revolutionized clean energy production using fuel cells.
107  efficiency, and durability is desirable for clean energy production.
108 ing the demand for sustainable approaches to clean-energy production and waste recycling.
109 lude by extending this framework to emerging clean energy reactions such as hydrogen peroxide product
110     Our findings highlight the importance of clean energy replacements in multiple sectors on achievi
111 arbon products is an important challenge for clean energy research.
112 ecessary for the development of sustainable, clean energy resources and to avoid nuclear pollution.
113  introduces a novel and efficient method for clean energy scheduling optimization by integrating PSO
114 ng optimization and a mathematical model for clean energy scheduling optimization is constructed.
115 mplexity and uncertainty challenges faced in clean energy scheduling within the current power system,
116 ghly regulated worldwide, and we confirm the clean energy sector as an unrecognized and potentially g
117 n bolster sustainable agriculture and expand clean energy services.
118                A comprehensive programme for clean energy should optimise mitigation and, simultaneou
119 he most aggressive plausible transition to a clean-energy society provides benefits for climate chang
120 ve high energy densities and are crucial for clean energy solutions.
121 o address the challenges posed by delivering clean energy solutions.
122  value added that is held by the co-produced clean energy source (syngas).
123                  Harnessing solar power as a clean energy source requires the continuous development
124 e interest for their potential in developing clean energy sources and storage technologies.
125    The randomness and volatility of existing clean energy sources have increased the complexity of gr
126                         Providing stable and clean energy sources is a necessity for the increasing d
127 ilitating public engagement around potential clean energy sources.
128 ts, nuclear reactors, nuclear waste systems, clean energy sources.
129 change mitigation effects when combined with clean energy sources.
130  an urgent task to develop the renewable and clean energy sources.
131                                              Clean energy spending in these countries only accounted
132            Although they hold the promise of clean energy, state-of-the-art fuel cells based on polym
133 talysts in supercapacitors and batteries for clean energy storage as well as in air/water treatments
134 feedstocks offers an attractive strategy for clean energy storage by directly utilizing solar energy,
135 nd demonstrates its promising application in clean energy storage.
136 critical for informing regional economic and clean energy strategies.
137 hemicals becomes a significant challenge for clean energy studies.
138 d stability under different load demands and clean energy supply conditions.
139 n electrochemistry, thus boosting the entire clean energy system.
140 to meet many analytical challenges in future clean energy systems and environmental management.
141 construction and maintenance of reliable and clean energy systems around the world.
142  oxide materials, ranging from catalysts and clean energy systems to emerging multifunctional devices
143 ustrate the ability of AI to power cheap and clean energy systems.
144            Electrocatalysts are required for clean energy technologies (for example, water-splitting
145         We further underscore the associated clean energy technologies and a sustainable nitrogen-bas
146 reactivity of molecular oxygen is crucial to clean energy technologies and green chemical synthesis,
147 e in the recovery and utilization of REEs in clean energy technologies and provide perspectives for e
148 der implications for the adoption of similar clean energy technologies and related policy challenges
149                          The rapid growth of clean energy technologies is driving a rising demand for
150 ed that deployment of a diverse portfolio of clean energy technologies makes a transition to a low-ca
151 ments (REEs) are critical resources for many clean energy technologies, but are difficult to obtain i
152 ic-electronic conducting (MIEC) membranes in clean energy technologies, i.e., oxyfuel combustion, cle
153 chemical reactions are crucial for desirable clean energy technologies, including advanced water elec
154 f this conversion has inspired the design of clean energy technologies, including solar cells and pho
155 anthanide series, are key components of many clean energy technologies, including wind turbines and p
156 uction of oxygen is important for developing clean energy technologies, such as fuel cells, and is vi
157  rare earth elements (REEs) in many emerging clean energy technologies, there is an urgent need for t
158 ch as utilizing renewable energy sources and clean energy technologies, we can mitigate the adverse i
159 trategy to craft materials for renewable and clean energy technologies.
160  highly efficient carbon-based catalysts for clean energy technologies.
161 erials (CMM) due to their essential roles in clean energy technologies.
162 critical minerals that are indispensable for clean energy technologies.
163 ce electrocatalysts are important to advance clean energy technologies.
164 , we must rapidly displace fossil fuels with clean energy technologies.
165 erphase and define reaction kinetics of many clean energy technologies.
166 ive and durable catalysts play a key role in clean energy technologies.
167 recious Pt catalysts holds great promise for clean energy technologies.
168 e to cope with the significant challenges of clean energy technologies.
169 e both domestic mining growth and affordable clean energy technologies.
170 igh temperatures are at the core of thriving clean-energy technologies.
171 tteries limit the commercialization of these clean-energy technologies.
172                  Fuel cells as an attractive clean energy technology have recently regained popularit
173 nts (REEs) are critical to multiple areas in clean energy technology, including magnets, catalysts, a
174 stainable development goal of affordable and clean energy, there has been a growing need for low-cost
175 oughs across technological applications from clean energy to information processing(1-11).
176 shore wind power offers a new option for the clean energy transition of the power sector in China's c
177                                   The global clean energy transition requires the development of alte
178                                          The clean energy transition will require a vast increase in
179 zation process may have implications for the clean energy transition, CO(2) storage and utilization,
180                                     For this clean energy transition, the versatile green ammonia may
181 gmatites is rapidly expanding to support the clean energy transition, yet associated water-quality im
182 2e) emissions as hydrogen use rises during a clean energy transition.
183  challenges and potential threats in China's clean-energy transition.
184                                          The clean energy transitions result in remarkable reductions
185 esearch shows how this Framework can address clean energy transitions, strengthen emerging industries
186 These proposals include separately targeting clean energy uptake and demand-side efficiency in indivi
187 It contributes to the overall improvement of clean energy utilization within the State Grid and provi
188 cate that this method significantly improves clean energy utilization, increasing it from 62.4% (with
189 N) to enhance grid scheduling efficiency and clean energy utilization.
190     Rivers provide unrivaled opportunity for clean energy via hydropower, but little is known about t

 
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