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1 s is crucial to determining vulnerability to global warming.
2 back-to-back mass bleaching events caused by global warming.
3 o improve risk assessment of toxicants under global warming.
4 a detectable change in extreme storms due to global warming.
5 most potent greenhouse gases contributing to global warming.
6 population adaptability and vulnerability to global warming.
7 a key component to understand the effects of global warming.
8 ations in shaping beliefs and feelings about global warming.
9 eive this risk, which will be exacerbated by global warming.
10 been widely used to assess tree responses to global warming.
11 pear at between approximately 2 and 2.5 K of global warming.
12 t of surface and sub-shelf melting caused by global warming.
13 pecies may influence invasion outcomes under global warming.
14 ritical in predicting ecosystem responses to global warming.
15 s that is 25% larger than in a world without global warming.
16 e compounds will have a negligible impact on global warming.
17 management of the GBR against the effects of global warming.
18 of China at 1.5 degrees C and 2.0 degrees C global warming.
19 l burning is required to limit the extent of global warming.
20 extreme coastal El Nino will increase under global warming.
21 understanding of how species will respond to global warming.
22 Antarctic Ice Sheet for different amounts of global warming.
23 rces could have significant implications for global warming.
24 the atmosphere that has led to the so-called global warming.
25 ger, and unexpectedly more destructive under global warming.
26 cy of deadly heat under specified amounts of global warming.
27 , whose speed and direction may change under global warming.
28 dP/dTs) for both interannual variability and global warming.
29 9 to 2006, resulting in negative feedback to global warming.
30 reach the atmosphere and potentially amplify global warming.
31 d movement of SOC in reducing SOC loss under global warming.
32 an dictate the sensitivity of populations to global warming.
33 when precipitation changes are combined with global warming.
34 o CO2 in surface waters, thereby reinforcing global warming.
35 precipitation loss, tends to increase under global warming.
36 ent, anchovy, is uncertain in the context of global warming.
37 re more clearly linked to sea-level rise and global warming.
38 ebrates (CBVs) and thus directly impacted by global warming.
39 onsidered larval connectivity as affected by global warming.
40 as how internal variability may change with global warming.
41 ibution of mobile stenothermal species under global warming.
42 their loss would trigger strong (about 5 K) global warming.
43 icles will likely lead to a reduction in net global warming.
44 ng impacts of chemicals on ecosystems facing global warming.
45 re, at least to some extent, attributable to global warming.
46 t attenuate increases in SOM decay caused by global warming.
47 he end-of-century declines under unmitigated global warming.
48 ortant climate regulation service that slows global warming.
49 not suffice to counter greenhouse-gas-driven global warming.
50 ergenicity of some plants and contributes to global warming.
51 The other reconstruction reveals global warming.
52 upply sustainable liquid fuels and alleviate global warming.
53 net access on the formation of beliefs about global warming.
54 ed to improve the resilience of this crop to global warming.
55 ered as a technological strategy to mitigate global warming.
56 igate the threats to alpine species posed by global warming.
57 context of globalization of N deposition and global warming.
59 mangrove SOM decay is affected by predicted global warming (+4 degrees C), sea level changes (simula
60 ensity is widely projected to increase under global warming, a clear framework for predicting accumul
61 results do not support the current view that global warming alone will lead to a loss in biodiversity
65 e (N(2) O) emissions from soil contribute to global warming and are in turn substantially affected by
69 s and (photo)electrocatalysis, may alleviate global warming and energy crises by removing excess CO2
71 ation models, particularly in the context of global warming and increasing frequency of droughts.
72 he change of global-mean precipitation under global warming and interannual variability is predominan
73 to be more frequent and intense accompanying global warming and may have profound impacts on soil res
76 age of traditional systems, thereby reducing global warming and providing savings on energy costs.
77 highlights an important link between ongoing global warming and public health-one that could be exace
78 records were used to assess the influence of global warming and regional eutrophication, respectively
80 st flooding events indicate that the ongoing global warming and sea-level rise will lead to significa
82 analysis and applying different GHG metrics (global warming and temperature potentials) and time hori
83 ned selective thermal emitter on alleviating global warming and temperature regulating an Earth-like
85 nct response of droughts of various types to global warming and the asymmetric impact of global warmi
86 ualties, under 1.5 degrees C and 2 degrees C global warming and their scenario dependence using three
87 ent, alongside other renewables, to mitigate global warming and to reduce fossil fuel dependency.
88 uminants has contributed considerably to the global warming and understanding the genomic architectur
90 response of organized tropical convection to global warming, and challenges conventional projections
92 constitute a handicap to prevail under rapid global warming, and contribute to explaining local lizar
93 sectors contributing to oil consumption and global warming, and natural gas (NG) is considered to be
96 e are persistent efforts worldwide to combat global warming, and that also includes the commercial fr
97 creased hygrometric capacity associated with global warming, and unchanged short-term atmospheric con
98 thaw to CO(2) and CH(4) to directly amplify global warming, another part will enter the fluvial netw
99 n such extra tropical forcing mechanisms and global warming are likely to be influential in determini
100 a scenario framework that focuses on capping global warming at a specific maximum level with either t
101 oengineering may not be fail-safe to prevent global warming because CO(2) can directly affect cloud c
102 he degree to which systems thinking predicts global warming beliefs and attitudes (e.g., believing th
103 systems thinking may support the adoption of global warming beliefs and attitudes indirectly by helpi
104 gh systems thinking is positively related to global warming beliefs and attitudes, the relationships
106 lishment of global climate policies to limit global warming below 1.5-2 degrees C will avoid the exha
108 he Paris agreement targeting a limitation of global warming below 2 degrees C by 2100, and possibly b
109 very large PV installations will not offset global warming, but could generate enough energy to nega
110 in boreal forests have been associated with global warming, but it is still uncertain whether the de
111 ad consensus that blooms are increasing with global warming, but the impacts of other concomitant env
112 r regions such as the Arctic under sustained global warming, but with complex and not necessarily pre
113 range of proposed methods for counteracting global warming by artificially reducing sunlight at Eart
117 s induced by, for example, eutrophication or global warming can induce major oxic-anoxic regime shift
120 ow carbon renewable natural gas and reducing global warming.Coalbeds produce natural gas, which has b
121 daily PM intake and field-measurement-based global warming commitment (GWC) for the Philips FDCS wer
123 ocean stratification and near-surface winds, global warming contributes to an amplified surface clima
126 an Ocean warming, another salient feature of global warming, could increase local rainfall and throug
128 detrimental to crop yields and could lead to global warming-driven reductions in agricultural product
130 imum-the largest known greenhouse-gas-driven global warming event of the Cenozoic-is central to drawi
131 the impact of a well-constrained CO2-induced global warming event on the ecological functioning of do
132 laeocene-Eocene Thermal Maximum (PETM) was a global warming event that occurred about 56 million year
133 o climate change and consider the effects of global warming, extreme weather, flooding and other cons
134 drogen and carbon monoxide mixture) from two global warming gases of carbon dioxide and methane via d
135 ractive effects between forest pathogens and global warming, globalization, and land-use changes may
136 cle assessment models to quantify life cycle global warming (GWP), eutrophication (EU) and acidificat
138 High ambient temperature attributable to global warming has a profound influence on plant growth
143 low-level moisture transport intensified by global warming has favored extreme rainfall across the s
145 st represented in our dataset, suggests that global warming has not systematically affected morpholog
147 Therefore, increasing iceberg fluxes due to global warming have the potential to increase marine pro
149 mean surface air temperature data indicate a global warming hiatus between 1998 and 2012, while its i
151 urface warming slowdown (GSWS) or so-called "global warming hiatus" since the end of the 20(th) centu
152 n among highly mobile marine ectotherms in a global warming hotspot, few species are fully keeping pa
153 y about facts across different topics (e.g., global warming, immigration), formats (verbal vs. numeri
154 nerally had a larger effect on the estimated global warming impact than the choice of static versus d
155 minimize the total annual cost (TAC) and the global warming impacts (GW) and maximize the circularity
156 g potential (GWP) approaches to estimate the global warming impacts from municipal solid waste landfi
158 , the standard static approach to estimating global warming impacts may not accurately represent the
160 DOC in the British Isles, to estimate future global warming impacts on THMs formation in DWTPs that u
164 nmental factors-e.g., regional conflicts and global warming-increase large-scale migrations, posing e
168 egories, including cumulative energy demand, global warming (IPCC 2007), acidification (TRACI), human
170 beria is highly sensitive to climate change; global warming is expected to push the ecotone northward
171 beliefs and attitudes (e.g., believing that global warming is happening, that it is human-caused, et
174 entage of the population that believes that "global warming is happening." This effect is diminished
178 provides strong evidence that anthropogenic global warming is not only unparalleled in terms of abso
182 ported during the past decade has shown that global warming is roughly proportional to the total amou
183 t countries will be significantly reduced if global warming is stabilized below 1.5 degrees C, and in
186 he lower atmosphere, Arctic amplification of global warming is weakening the meridional temperature g
187 cean warming, a consequence of anthropogenic global warming, is changing the global wave climate, mak
188 tions because of the limited DCC response to global warming, it may potentially increase the uncertai
189 g the Parallel Ice Sheet Model(3-5), that at global warming levels around 2 degrees Celsius above pre
193 d future risk assessment of pesticides under global warming, mechanistic insights and consideration o
194 heating value, is an attractive strategy for global warming mitigation and resource utilization.
200 d to probabilistically estimate the level of global warming needed for a September ice-free Arctic, u
201 vaccination, and responses to messages about global warming, nuclear proliferation, and natural disas
202 tors of global heatwave risk associated with global warming of 1.5 and 2 degrees C, specified by the
203 expand on the recent IPCC Special Report on global warming of 1.5 degrees C and review the additiona
204 global warming and the asymmetric impact of global warming on drought distribution resulting in a mu
205 Here, we explore the potential impact of global warming on ectotherm ageing through its effects o
206 ts to understand the influence of historical global warming on individual extreme climate events have
207 the region, and rising seas associated with global warming on long timescales and exacerbated by shi
208 ins unknown whether the long-term impacts of global warming on metabolic rates of phytoplankton can b
211 we quantify uncertainty in the influence of global warming on the severity and probability of the hi
212 amounts of carbon dioxide, thus limiting the global warming otherwise expected from postextinction vo
213 ls provide the principal means of projecting global warming over the remainder of the twenty-first ce
214 ighlights the clear need to mitigate against global warming, oversimplification of global change effe
215 the species is vulnerable to the effects of global warming, particularly on the Northeast U.S. Shelf
216 of using 100 yr and 20 yr static and dynamic global warming potential (GWP) approaches to estimate th
221 esult, WTL and N deposition both reduced the global warming potential (GWP) of growing season GHG bud
222 el is extended to estimate the corresponding global warming potential (GWP) over an analysis period o
225 e, recycling, and efficiency, the life cycle global warming potential for LFP ranges from 185 to 440
226 es of CH4 -C:CO2 -C ratios lead to a greater global warming potential in the fast (step) warming trea
227 zone's GHG emissions had a reduced sustained global warming potential of 264 g m(-2) yr(-1) CO(2)-e o
232 impact on long-term soil organic carbon and global warming potential than uncertainty in model struc
234 ironmental screens (critical temperature and global warming potential), we simulate performance in sm
236 orms the soil amendment scenario in terms of global warming potential, acidification, and eutrophicat
238 ration profile for accurate estimates of the global warming potential, as well as the utility of a WM
239 per year), and (2) a 3% net decrease in the global warming potential-weighted emission factor (-27 g
243 en concluded that with 100-year time horizon global warming potentials (GWP(100)) equivalent to <0.21
247 imed to have positive effects for mitigating global warming, preventing soil erosion, and reducing bi
248 r results suggest a possible replacement, as global warming proceeds, of cool-adapted by warm-adapted
253 temperatures, predicting their impact under global warming remains a key challenge for ecological ri
254 ng the response of the hydrological cycle to global warming requires predicting not only how global m
257 e supporting that soil N availability, under global warming scenarios, is expected to increase strong
259 compromise ecosystem processing depending on global warming scenarios; for example, reducing organism
262 e show using observations and an ensemble of global warming simulations the combined impact of the El
264 Earth system models (ESMs) project that global warming suppresses biological productivity in the
265 However, with temperature increase due to global warming, temperature cue thresholds are experienc
267 been impacted by thermal anomalies caused by global warming that induced coral bleaching and mortalit
268 efore, as thermal fluctuations escalate with global warming, the feminization of TSD turtle populatio
269 points to two concerns regarding adaption to global warming, the first being that adaptation will not
271 Waves (HWs) are expected to increase due to global warming, they are a regional phenomenon that dema
272 ocumented and urgent aspect of anthropogenic global warming, threatens population and assets located
273 h applied to a 1.5 degrees C and 2 degrees C global warming threshold suggests self-preservation emis
276 asibility and potential benefits of limiting global warming to 1.5 degrees C or 2 degrees C above pre
277 ontribute ~10% of mitigation needed to limit global warming to 1.5 degrees C, carbon prices will need
279 the international community pledged to limit global warming to below 2 degrees C above preindustrial
281 tems will be an essential component to limit global warming to well below 2 degrees C in the future.
283 ase of Atlantic multidecadal oscillation and global warming trend has provided more favourable backgr
285 ility on changes in ENSO under anthropogenic global warming using the Community Earth System Model (C
287 d ecosystem quality, mainly because of lower global warming, water scarcity, and metal contamination
291 any stressors, including toxic chemicals and global warming, which can impair, separately or in combi
292 ions contribute to the greenhouse effect and global warming, which can lead to undesirable climate ch
293 e effect of TC size change in the context of global warming, which resulted in a significant underest
295 gen availability, and body size predict that global warming will limit the aerobic scope of aquatic e
297 ts, we can expect that ongoing and projected global warming will result in increasingly negative Tw-T
300 logical cycle is expected to intensify under global warming, with studies reporting more frequent ext