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1 e energy, the stronger (weaker) the El Nino (La Nina).
2 l of 6 storms (24.6 for El Nino and 18.6 for La Nina).
3 pacts are more robust following El Nino than La Nina.
4 nd it remains comparable between El Nino and La Nina.
5 t-year La Nina to persist into a second-year La Nina.
6 is what cause the switch between El Nino and La Nina.
7 le to predict the switch between El Nino and La Nina.
8 tion over the Tropical continents during the La Nina.
9 nvestigate the global impacts of El Nino and La Nina.
10 os is followed by a super El Nino and then a La Nina.
11 k and rainfall associated with the 2010-2011 La Nina.
12 an climate which has shifted from El Nino to La Nina.
13 to climate fluctuations dominated by El Nino/La Nina.
14 s (beach widening) are not similarly tied to La Ninas.
24 e western portion of the ENP during El Nino (La Nina), but reduced (enhanced) TC frequency in the eas
26 EN) events after ~11 ka: eastern Pacific EN, La Nina, coastal EN (COA), and central Pacific or Modoki
30 ed to Australian ecosystems, where prevalent La Nina conditions caused up to six consecutive seasons
36 cause of tropical inundation associated with La Nina conditions, consistent with trends in the GRACE
37 anic eruptions strengthen El Nino and weaken La Nina conditions, further enhancing Indian droughts.
40 , and a cyclical change from an El Nino to a La Nina dominate our measure of anthropogenic effects be
42 y the first (second) type is associated with La Nina (El Nino) like conditions, suggesting that both
43 wever, inconsistencies exist between El Nino/La Nina (ENSO) cycles and precipitation in the historica
44 tremes as seen during historical consecutive La Nina episodes probably occur more frequently in the t
45 spanning a major El Nino event in 2015 and a La Nina event in 2022, observed varying oceanic conditio
46 s were not significantly enhanced during the La Nina event likely because increased stratification be
50 of localized activity vary from one El Nino (La Nina) event to another; still, some El Nino (La Nina)
51 the understanding and prediction of El Nino/La Nina events and also may be applied in the investigat
52 stic forecasts for the occurrence of El Nino/La Nina events are also performed and assessed via infor
53 tion anomalies during historical El Nino and La Nina events by magnifying or weakening droughts and p
55 ) cycle of alternating warm El Nino and cold La Nina events is the dominant year-to-year climate sign
56 tic ENSO cycle with intermittent El Nino and La Nina events of varying intensity and strength as well
60 n (ENSO)--in particular, extreme El Nino and La Nina events that modulate California's climate not on
61 r were sighted with greater frequency during La Nina events, and their abundance dropped considerably
62 Heat-stress events are more frequent during La Nina events, but occur under all climatic conditions,
63 rease in the frequency of strong El Nino and La Nina events, but the change differs vastly across mod
64 cillation, NTA warm anomalies tend to induce La Nina events, droughts in Northeast Brazil, increased
65 t intermittently triggers regular El Nino or La Nina events, super El Nino events, or no events at al
68 nts to rapidly rising floods associated with La Nina events, which debouch extraordinary volumes of s
74 erstood by analogy to historical El Nino and La Nina events: North Pacific tropical cyclone projectio
80 Relative to single-year La Nina, consecutive La Nina features meridionally broader easterly winds and
81 he two end members of the cycle, El Nino and La Nina, force anomalous oceanographic conditions and co
82 slands (Malvinas) to Tristan da Cunha during La Nina found a more abundant and speciose seabird assem
83 shows a strong asymmetry between El Nino and La Nina impacts, with much larger amplitude and broader
85 onstrate that the switch between El Nino and La Nina is caused by a subsurface ocean wave propagating
87 e one phase of a natural mode of oscillation-La Nina is the complementary phase-that results from uns
89 that Pinatubo-like eruptions tend to shorten La Ninas, lengthen El Ninos and induce anomalous warming
90 temperature (SST) trends resembling a strong La Nina-like cold condition and the negative phase of th
91 rease followed by a decrease-can sustain the La Nina-like condition for a longer time than expected.
93 ase of the Arctic Oscillation, predominantly La Nina-like conditions, and variation in the position o
96 ed with mid-Holocene cooling suggestive of a La Nina-like pattern with enhanced SST gradients and str
98 of drying in southwest North America with a La Nina-like response creating a worst case scenario of
99 orial Atlantic, is known to remotely force a La Nina-like response in the Pacific, potentially affect
102 cooling of the east equatorial Pacific and a La Nina-like state, analogous to observations of a trans
103 Pacific, consistent with the prevalence of a La Nina-like state, rather than the proposed persistent
105 ulate BSISO propagation - with El Nino-like (La Nina-like) conditions favoring quasi-stationary (east
107 ity, results from the reinforcing effects of La-Nina-like climate conditions and relative tropical At
109 e significance of a strong El Nino preceding La Nina (LN) in the formation of multi-year LN events du
110 El Nino-Southern Oscillation (ENSO) phases (La Nina, neutral, and El Nino years) appear to be a weak
111 s the delayed effect of the preceding winter La Nina on the EASM, causing a reduction in the magnitud
113 n consecutive La Nina events, the concurrent La Nina opposes the delayed effect of the preceding wint
120 vealed, across the US winter wheat belt, the La Nina phase of the El Nino Southern Oscillation (ENSO)
122 W), which intensify (weaken) during El Nino (La Nina), producing low-level anticyclonic (cyclonic) re
123 we argue that, in this case, a strong summer La Nina provided a window of opportunity to issue a much
124 e find an increased frequency of consecutive La Nina ranging from 19 +/- 11% in a low-emission scenar
128 first half of 2011 experienced the strongest La Nina since the early 1980s, when global surface netwo
134 ly and peak in a single winter(1-3), whereas La Nina tends to develop after an El Nino and last for t
135 n the equatorial Atlantic, which can trigger La Nina, the cold phase of El Nino-Southern Oscillation
138 n be observed during rapid shifts from cold (La Nina) to warm (El Nino) conditions in that region.
144 unusually heavy cloud cover associated with La Nina, we installed high-intensity lamps above the for
145 e Indian Ocean Dipole (IOD) and co-occurring La Nina weaken the southeasterlies and cooling from coas
146 tropical wetland emissions during the strong La Nina were at least by 5% larger than the long-term me
149 super typhoons (7.1 for El Nino and 1.5 for La Nina) which nearly matches the mean response overall
150 re larger than the maximum cold anomalies of La Nina, which are centred in the equatorial central Pac
154 eviating from the typical pattern forced by "La Nina" with the maximum drying in the central and nort
155 0) across direct transitions from El Nino to La Nina, with statistically significant medium effects o
156 elation with adult growth chronologies, with La Nina years (characterised by warmer temperatures and
157 global-mean yields of all four crops during La Nina years tend to be below normal (-4.5 to 0.0%).
159 malies of flood risk exist during El Nino or La Nina years, or both, in basins spanning almost half (