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1 owed for the successful forecast of its 2015 eruption.
2 the time interval duration from the previous eruption.
3 quired for normal bone development and tooth eruption.
4 es in advance of changing hazards during the eruption.
5  such as high bone mass and failure of tooth eruption.
6  hours of collection during the 2018 Kilauea eruption.
7 fraction was withdrawn before the end of the eruption.
8 calization at conduit margins, and explosive eruption.
9 ound 0.5 degrees C for a few years after the eruption.
10 ted by the injection of fresh magma prior to eruption.
11 etween the waxing and waning portions of the eruption.
12 cause most magmas are strongly degassed upon eruption.
13 onent into the magma reservoir just prior to eruption.
14 reported on entecavir induced lichenoid drug eruption.
15 as malocclusions and delayed or failed tooth eruption.
16 uninhabitable for years to decades after the eruption.
17 es it appear after the outsized 1257 Samalas eruption.
18 genetic disorder exclusively affecting tooth eruption.
19  extending the surface cooling caused by the eruption.
20 ental impact of the Thera/Santorini volcanic eruption.
21  the depth of their source and the timing of eruption.
22 ce and severity change over time after tooth eruption.
23 redicted timing of through-going failure and eruption.
24 ke intrusion and ultimately facilitating the eruption.
25                                      Samalas eruption.
26 eft shoulder and developed systemic pruritic eruptions.
27  vesicles between the samples from the three eruptions.
28  in the seismic energy generation during the eruptions.
29 tigating the dynamics and timing of volcanic eruptions.
30 ever and self-limiting vesiculopustular skin eruptions.
31 rence of volcanic lightning during explosive eruptions.
32 has impacts analogous to those from volcanic eruptions.
33 as temperature, that are inherent in natural eruptions.
34 tion in the upper crust before many volcanic eruptions.
35 e Reunion hot spot at the time of the Deccan eruptions.
36 is likely to occur in all explosive volcanic eruptions.
37 art of the millennia between successive nova eruptions.
38 bution of magma mingling to highly explosive eruptions.
39 n of ash sourced from high-latitude volcanic eruptions.
40 can be a key process during highly explosive eruptions.
41  beneath Sinabung and is being tapped during eruptions.
42 ment outcomes of patients with purpuric drug eruptions.
43 etic breakout is a universal model for solar eruptions.
44 ent occurrence of lightning during explosive eruptions.
45 -nova event, the system exhibited dwarf-nova eruptions.
46 re forced by orbital variations and volcanic eruptions.
47  seismicity and other precursors of dyke-fed eruptions.
48 characterize electrical activity in volcanic eruptions.
49 s adverse reactions, most commonly acne-like eruptions.
50 cts caused by historic droughts and volcanic eruptions.
51 characterized by recurrent and pruritic skin eruptions.
52  a white dwarf star ignites a classical nova eruption(1,2)-a thermonuclear runaway in the accumulated
53               Skin symptoms included papular eruptions (100%), sclerodermoid features (91%), and leon
54 volcanic area; (iii) the time since the last eruption (70 ka) exceeds the average recurrence interval
55 nd the potential impacts of a similar future eruption, a thorough physical understanding of the YWAS
56 es, likely the most representative of the BT eruption age, yield a weighted mean of 764.8 +/- 0.3/0.6
57 ovae display nova shells, but lack firm post-eruption ages, and are also dwarf novae at present.
58 the periodontal ligament (PDL) include tooth eruption and anchorage, force absorption, and provision
59 nced its largest lower East Rift Zone (LERZ) eruption and caldera collapse in at least 200 years.
60 olving towards conditions more favourable to eruption and identify field tests for predictions on how
61 ks in physiological conditions such as tooth eruption and movement and also for periodontal diseases.
62 genitor cell populations that regulate tooth eruption and tooth root formation are beginning to be un
63 w normal during the 2 y period following the eruption and unusually wet conditions.
64 years of research, the drivers of population eruptions and crashes are still not fully understood and
65 lly to the timing and frequency of Kilauea's eruptions and intrusions.
66     Vesicular, urticarial, and maculopapular eruptions and livedo, necrosis, and other vasculitis for
67 lation between some continental flood basalt eruptions and mass extinctions has been proposed to indi
68 s the main external forcings (i.e., volcanic eruptions and solar activity) on NAO variability which,
69 gma volume flowing out of the chamber during eruptions and the volume of the chamber.
70  eruption, the ~650-y-old Deadman Creek Dome eruption, and several mafic subvolcanic orbicules and pl
71 of anaphylaxis, 26 of nonimmediate cutaneous eruptions, and 17 of bronchospasm related to ASA/nonster
72 ce of GS etiologies, such as altered passive eruption (APE) and hypermobile upper lip (HUL), has not
73             Individuals with altered passive eruption (APE) are assumed to be more susceptible to per
74 ronmental and climatic impacts of this large eruption are not well known because the eruption magnitu
75                                              Eruptions are also followed by socioeconomic stress with
76                              Caldera-forming eruptions are among Earth's most hazardous natural pheno
77                                        These eruptions are associated with fast spectral transitions
78                                              Eruptions are associated with revolt onset against elite
79 cause of these extinctions, the Deccan Traps eruptions are believed to have contributed to extinction
80                                     The skin eruptions are classically diffuse, symmetric maculopapul
81                     Large-volume pyroclastic eruptions are not known from the basalt-dominated Britis
82                           Explosive volcanic eruptions are the largest non-anthropogenic perturbation
83                                     Volcanic eruptions are thought to be a key driver of rapid climat
84 , crystallization depths of magmas that feed eruptions are thought to be less than nine kilometres(2)
85 recent models of volcano unrest suggest that eruptions are triggered when conditions of critical stre
86 rix are surprisingly common in low intensity eruptions around the world, yet their origin is poorly u
87          Here we employ the 75 ka Toba super-eruption as a case study to show that quartz can resolve
88 d such as asteroid impacts and supervolcanic eruptions, as well as risks that remain unknown.
89 of ~5 x 10(6) kg/s for the initial explosive eruption associated with a flank collapse.
90                  Models consistently predict eruption at a reservoir pressure threshold of 12-14 MPa
91  show that in December 2018 an intra-caldera eruption at Ambrym preceded normal faulting with >2 m of
92                         Processes related to eruptions at arc volcanoes are linked by structures that
93 , lending support to the interpretation that eruptions at Axial Seamount are triggered by reservoir o
94 osols from large tropical explosive volcanic eruptions backscatter shortwave radiation and reduce the
95 ccurrence of several closely spaced volcanic eruptions between 1108 and 1110 CE.
96 ent with the forced response to low-latitude eruptions but further, that this warming is a response t
97  volcanic seismicity that sometimes precedes eruptions but mostly occurs at quiescent volcanoes.
98 n El Nino-like response in the year after an eruption, but this response is not statistically signifi
99  Nino tends to follow 2 years after volcanic eruptions, but the physical mechanism behind this phenom
100 eruptive behavior occur during many volcanic eruptions, but typical analytical techniques are too slo
101  mantle melts and the triggering of volcanic eruptions by supply of magma from greater depth.
102                                     Volcanic eruptions can affect global climate through changes in a
103 ion columns are developed; meaning that such eruptions can generate extensive tephra-fall and pyrocla
104        Nevertheless, occasional more intense eruptions can present a serious danger.
105                                         Such eruptions cause a strong asymmetrical hemispheric coolin
106         The delay between intense unrest and eruption caused considerable challenges to emergency res
107                                Purpuric drug eruptions caused by epidermal growth factor receptor inh
108                To characterize purpuric skin eruptions caused by epidermal growth factor receptor inh
109  and 82 km(3) of magma was dispersed from an eruption coignimbrite column that rose to ~45 km by mode
110                       Large Igneous Province eruptions coincide with many major Phanerozoic mass exti
111 one deposits, moderate to intense, unstable, eruption columns are developed; meaning that such erupti
112 sponse to large volcanic eruptions: Volcanic eruptions cool the surface, thus masking the relative El
113 del simulations to show that a Pinatubo-like eruption cools tropical Africa and drives westerly wind
114 mount has exhibited an inflation predictable eruption cycle, which allowed for the successful forecas
115 r elucidate these associations with detailed eruption data and examine the implications of this varia
116                                          Her eruption did not result in lichenification and was not f
117 Finally, our analysis suggests that volcanic eruptions do not lead to an overall global reduction in
118            1477) claimed that large volcanic eruptions do not produce a detectable El Nino response.
119                  Here, we show that the 1815 eruption drove strong responses in both the ocean and cr
120 gmas is of great importance for interpreting eruption dynamics.
121   The comparison with Pele's hair of similar eruptions elsewhere demonstrates that there is no univoc
122      Unrest at large calderas rarely ends in eruption, encouraging vulnerable communities to perceive
123 ses, suggest that magmatic rejuvenation (and eruption) events, as reflected in crystal growth times,
124                                          The eruption evolved, and its impact expanded, as a sequence
125 mately 192-y series of halogen-rich volcanic eruptions exactly at the start of accelerated deglaciati
126 ion of 14 +/- 2 Tg S associated with the TBJ eruption, exceeding those of the historic eruption of Pi
127 nearity between magma decompression rate and eruption explosivity.
128  "seasons", which include enhanced bursts of eruptions for several months, followed by quiet periods.
129                                              Eruption forecasting is inherently challenging in cascad
130                 Despite their importance for eruption forecasting the causes of seismic rupture proce
131 c deformation, crustal stress evolution, and eruption forecasts.
132                The Tierra Blanca Joven (TBJ) eruption from Ilopango volcano deposited thick ash over
133 re work is needed to confirm that a volcanic eruption from Mt.
134 attributed in previous studies to a volcanic eruption from the submarine Kuwae caldera in Vanuatu.
135 olony expansion were abruptly ended by large eruptions from the Deception Island volcano, resulting i
136  report observations of quasi-periodic X-ray eruptions from the nucleus of GSN 069 over the course of
137 Under slow decompression typical of effusive eruptions, gas extraction is promoted, whereas under rap
138                                          The eruption generated strong tremor that was recorded by se
139 vations suggest that, rather than portending eruptions, global DLP activity may more commonly be indi
140 lance, the response of the Southern Ocean to eruptions has yet to be understood.
141 howed that over the last 110 years, volcanic eruptions have influenced ASM variations on an inter-dec
142                         The spatially random eruption hypothesis was found to be highly improbable.
143 o reveal a previously unknown major tropical eruption in 1108 CE.
144                                        Kelut eruption in 2014, stratospheric ash-rich aerosols were o
145  Europe, recognition of ash from the Oruanui eruption in Antarctica dramatically increases the reach
146 rence during the 3 June 2018 Volcan de Fuego eruption in Guatemala.
147 e we show that the massive 2014-2015 fissure eruption in Holuhraun, Iceland, reduced the size of liqu
148  essentially recapitulate primary failure of eruption in humans, a rare genetic disorder exclusively
149 ying ultramafic nodules from the Borgarhraun eruption in Iceland.
150 ooth root malformation, and failure of tooth eruption in molars, which essentially recapitulate prima
151 erturbs the fields, triggering their surface-eruption in the form of new cycle spots.
152 hing the lava lakes, and feeding a submarine eruption in the rift edge.
153 er, identification of stratospheric volcanic eruptions in the geological record and their causal link
154 marker to identify the imprint of the Deccan eruptions in the stratigraphic record and is evidence of
155        Observations following major volcanic eruptions indicate that aerosol enhancements confined to
156                                       During eruptions, inelastic processes including magma mush eros
157  show that immediately before and during the eruption, infiltration of rainfall into Kilauea Volcano'
158                                        Tooth eruption is a continuous biological process with dynamic
159                                        Tooth eruption is a unique biological process by which highly
160                                     Pinatubo eruption is consistent with the forced response to low-l
161 magma volume leaving the chamber during each eruption is estimated at 0.064 km(3).
162  from any single classical or recurrent nova eruption is known(8-10), but thousands of successive rec
163 as the time of 70 kyr elapsed since the last eruption is of the same order of the longest dormancies
164 e and slower recovery from the 1991 Pinatubo eruption lead to later signal detection (between 1997 an
165 ive forcing from this massive, high-latitude eruption led to pronounced changes in hydroclimate, incl
166 eased surface UV radiation indicate that the eruptions led to stratospheric ozone depletion.
167 posed that a decreasing pressure of volcanic eruptions led to the oxygenation of the atmosphere.
168 lated adverse events including maculopapular eruption, lichenoid reactions, pruritus, and vitiligo ha
169 re climatic anomalies following the proposed eruptions, likely providing the environmental preconditi
170 arge eruption are not well known because the eruption magnitude and date are not well constrained.
171 gest that warming induced by future volcanic eruptions may further enhance the vulnerability of the i
172 ars ago suggests that stratospheric volcanic eruptions may have contributed to synergetic environment
173 cal surface cooling caused by large volcanic eruptions may mask El Nino warming at our central Pacifi
174                               Within a given eruption, melt inclusions trapped in primitive olivine c
175 irst months of Paricutin volcano monogenetic eruption (Mexico, 1943-1952) record fast growth and larg
176 Pozzuoli to the location of the last caldera eruption (Mt.
177  magma reservoir pressure threshold at which eruptions occur, and as such, an overpressure eruption t
178                Asama, whose largest Holocene eruption occurred in August 1108 CE and is credibly docu
179                In 2018, a highly destructive eruption occurred on the lower flank of Kilauea Volcano,
180                    The new date confirms the eruption occurred within the Early Classic phase when Ma
181   Moreover, statistical analysis of historic eruption occurrence suggests that rainfall patterns cont
182 to investigate the impact of strong volcanic eruptions occurring in the tropical Northern (NH) and So
183 reak-up, both in our experiments and natural eruptions, occurs by both viscous and capillary instabil
184 he binary star underlying the classical nova eruption of 11 March AD 1437, and independently confirm
185 older, stored magma-including the unexpected eruption of andesite-and hotter magma delivered during d
186                                       Failed eruption of canines or second molars in affected persons
187                From June to August 2018, the eruption of Kilauea volcano on the island of Hawai'i inj
188                    The 2018 summit and flank eruption of Kilauea Volcano was one of the largest volca
189              The May 2018 rift intrusion and eruption of Kilauea Volcano, Hawai'i, represented one of
190 ced tsunami since the catastrophic explosive eruption of Krakatau in 1883 and the sector collapse of
191 ustal hydrothermal alteration related to the eruption of large igneous provinces is poorly known and
192  history by ubiquitous and sustained massive eruption of lava, forming several enormous igneous plate
193 response to magma ascension and is loaded by eruption of lavas.
194                                       Random eruption of locally endemic populations was tested using
195 ing teeth were systematically accompanied by eruption of molars faster than permanent premolars.
196                                  The 1257 CE eruption of Mount Samalas (Indonesia) is the source of t
197                               The March 2016 eruption of Pavlof Volcano, Alaska, produced an ash plum
198 BJ eruption, exceeding those of the historic eruption of Pinatubo in 1991.
199 at circa 252 Ma and has been linked with the eruption of the basaltic Siberian Traps large igneous pr
200 as well as the extinctions are linked to the eruption of the Central Atlantic Magmatic Province (CAMP
201 er, we provide a date for the youngest known eruption of the MSVD and assess the timing of the most r
202 interval and the time elapsed since the last eruption of the MSVD.
203 rt a surface air temperature response to the eruption of the order of -1 degrees C, performing well a
204  climate change coincide temporally with the eruption of the smallest DT phases, suggesting that eith
205 istory of individual zircon crystals from an eruption of the Taupo Volcanic Zone, New Zealand.
206 ts exploration as a potential marker for the eruption of Thera.
207  previously speculated that a large volcanic eruption of unknown origin was the most likely cause.
208 industry is found at Dhaba spanning the Toba eruption of ~74 ka (i.e., the Youngest Toba Tuff, YTT) b
209  We extend these findings to caldera-forming eruptions of crystal-rich magma where large overpressure
210  several days before the onset of voluminous eruptions of fast-moving flows that destroyed hundreds o
211 of Pele's hair formed during three different eruptions of Kilauea volcano have been investigated: fou
212                              Caldera-forming eruptions of mushy silicic magma are among the most cata
213 up of severe skin disorders characterized by eruptions of neutrophil-filled pustules.
214  of aerosols and/or ash particles during the eruptions of the CAMP basalts.
215 E) is associated with a rise in CO(2) due to eruptions of the Central Atlantic Magmatic Province (CAM
216 c to gauge ENSO's response to large volcanic eruptions of the last millennium.
217 c ice cores that one of the largest volcanic eruptions of the past 2,500 y occurred in early 43 BCE,
218 e Phanerozoic, has been widely attributed to eruptions of the Siberian Traps Large Igneous Province,
219 t and very cold conditions from this massive eruption on the opposite side of Earth probably resulted
220                    The main magma source for eruptions on Etna (Italy) is poorly constrained.
221 ous volcanic melts and the largest explosive eruptions on our planet consist of calcalkaline rhyolite
222                   The effect of the volcanic eruptions on the ITCZ and hence on TC activity lasts for
223                          Magnetically driven eruptions on the Sun, from stellar-scale coronal mass ej
224 ) from a stellar companion leads to frequent eruptions on timescales of years(4,5) to decades(6).
225 igma analytical/full uncertainty) indicating eruption only approximately 7 ky following the Matuyama-
226 layed manner as different forms of cutaneous eruptions or liver injury consistent with priming of an
227 ral drivers such as large explosive volcanic eruptions or multidecadal cycles in ocean circulation oc
228 catastrophic events such as phreato-magmatic eruptions or volcano destabilizations.
229 er the solar flare, including the associated eruption, particle acceleration, and plasma heating.
230                    The inflation predictable eruption pattern suggests a magma reservoir pressure thr
231 ed on the variations in crown height, dental eruption pattern, and associated body mass of 69 notoung
232 pared with that during the inactive volcanic eruption period (1936-1962).
233                   During the active volcanic eruption periods (1901-1935 and 1963-1993), significantl
234         We found that during active volcanic eruption periods, which correspond to a negative AMO sta
235 st continental flood basalt provinces, whose eruption played a role in the Cretaceous-Paleogene extin
236                             Silicic volcanic eruptions pose considerable hazards, yet the processes l
237 ing can impact magmatic fO2 before or during eruption, potentially obscuring relationships between th
238 degassing trends suggests that a decrease in eruption pressure would not produce this effect.
239                               Large volcanic eruptions produce sulfur dioxide, which in turn produces
240 on these estimates it is likely that the TBJ eruption produced a cooling of around 0.5 degrees C for
241 l kinship with Toba, and zircons from recent eruption products suggest Toba's climactic magma reservo
242 acement mode of CAMP magmas, favouring rapid eruption pulses (a few centuries each).
243     The results provide a clear link between eruption rate fluctuations and their driving processes i
244 munities on active volcanoes, and volumetric eruption rate is one of the primary factors controlling
245        The time scales and driving forces of eruption rate variability, however, remain poorly unders
246             According to this model, maximum eruption rates occurred before and after the K-Pg extinc
247 he primary vent exhibited substantial cyclic eruption rates on both short (minutes) and long (tens of
248                          We estimated Deccan eruption rates with uranium-lead (U-Pb) zircon geochrono
249                          However, because of eruption-related degassing of sulfur (S) and the composi
250 ma and coal during the Siberian flood-basalt eruptions released large amounts of CO2 and CH4 into the
251                        Forecasting explosive eruptions relies on using monitoring data to interpret t
252         The dynamics of peralkaline rhyolite eruptions remain elusive with no direct observations rec
253  hazards, yet the processes leading to these eruptions remain poorly known.
254                         The sources of these eruptions remain unknown, but we propose that Mt.
255   Determining whether magma fragments during eruption remains a seminal challenge in volcanology.
256 wever, the exact triggering mechanism of its eruptions remains ambiguous.
257 gh quality records of stratospheric volcanic eruptions, required to model past climate variability, h
258 nd likely not a large stratospheric tropical eruption, requires revision of the stratospheric sulfate
259 , but thousands of successive recurrent nova eruptions should be capable of generating shells hundred
260  anomaly of sulfate for the largest volcanic eruptions, showing a further change in atmospheric chemi
261  plumbing system at the long-lived Pu'u 'O'o eruption site caused widespread pressurization in the vo
262  be considered as a promising step to derive eruption source parameters from geophysical data in real
263                                     Deriving eruption source parameters from geophysical data is crit
264  Pleistocene Campanian Ignimbrite (CI) super-eruption (Southern Italy) is the largest known volcanic
265 may not be suitable for the investigation of eruption-specific processes, they record timescales of c
266 o detectors aimed at earthquake and volcanic eruption studies, and monitoring of nuclear sites.
267 le affects the dynamics of melting, volcanic eruption style and the evolution of Earth's atmosphere v
268 ransition ( 690 degrees C) to above inferred eruption temperatures (>1150 degrees C) for durations of
269 cause it is impossible to forecast the solar eruptions that can cause these terrestrial events until
270 ay, and that it is caused either by episodic eruptions that emplace voluminous lava flows or by a cyc
271 ings reveal important characteristics of the eruptions that gave rise to them: that despite the relat
272       During the century before and after an eruption, the 'novalike' binary systems that give rise t
273 crysts from the 1915 Mount Lassen rhyodacite eruption, the ~650-y-old Deadman Creek Dome eruption, an
274                                 During these eruptions, the X-ray count rate increases by up to two o
275            The discovery, which presages the eruption there by more than eight months, suggests that
276 d the product of the 1104 CE Hekla (Iceland) eruption, this event can now be associated with substant
277 xide, which in turn produces aerosols; these eruptions thus represent a natural experiment through wh
278 hquakes, where we were able to calculate the eruption time and location to a satisfactory degree of a
279 ceted study we have resolved the date of the eruption to 431 +/- 2 CE by identifying the ash layer in
280 r Antarctica-plausibly link the Mount Takahe eruptions to the onset of accelerated Southern Hemispher
281 wo distinct periods of lightning during this eruption totaling 75 unique lightning flash occurrences
282 altered roof material may represent a viable eruption trigger in large Toba-style magmatic systems.
283                      A precipitation-induced eruption trigger is consistent with the lack of precurso
284 ruptions occur, and as such, an overpressure eruption triggering mechanism.
285                        We test hypotheses of eruption triggering using 3-dimensional finite element m
286 ndamental climate response to large volcanic eruptions: Volcanic eruptions cool the surface, thus mas
287                              A reconstructed eruption volume of >=5km(3) DRE is derived, suggesting a
288 t, it may be difficult to forecast the final eruption volume; pressure in a magma body may drop well
289 contrary to the microsatellite analyses, the eruption was associated with a small but significant dec
290                             Another possible eruption was recorded at the same position in 1954.
291 ction of new nutrient sources, but not tooth eruption, was associated with increasing complexity.
292 phases and the time elapsed between the last eruptions, we conclude that the waning/extinguishment of
293 This, combined with observations of the 1963 eruption which caused more than thousand fatalities, sug
294 he fine-scale plasma structure of very small eruptions, which are frequently ejected from the Sun.
295 of the thermal history of magma feeding such eruptions, which largely controls crystallinity and ther
296                                     Pinatubo eruption with the Last Millennium Ensemble (850-1850) co
297                   The most intense explosive eruptions with accompanying rapid lava effusion occurred
298                        Large volume effusive eruptions with relatively minor observed precursory sign
299 urse conversation about child's future tooth eruption, with advice given to visit a general dental pr
300  on Earth, capable of large and catastrophic eruptions, yet their low eruptive frequency makes it cha

 
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