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1 meric substances was observed after this oil spill.
2 several years after the occurrence of an oil spill.
3 re also occasionally reported after the AFFF spill.
4 present in sediment collected 10 months post spill.
5 erations or in the event of an environmental spill.
6 hat bloomed during the Deepwater Horizon oil spill.
7 beaches following the Deepwater Horizon oil spill.
8 ealth effects from the Deepwater Horizon oil spill.
9 he time of study enrollment, 1-3 y after the spill.
10 consistent with the results from the DWH oil spill.
11 disaster led to the largest ever marine oil spill.
12 s formation during the Deepwater Horizon oil spill.
13 , domestic conflict, and exposure to the oil spill.
14 ed from the 2010 Deepwater Horizon (DWH) oil spill.
15 d after the 2010 Deepwater Horizon (DwH) oil spill.
16 tem loss following the Deepwater Horizon oil spill.
17 Gulf of Mexico during the Deepwater Horizon spill.
18 dorous chemicals from an industrial chemical spill.
19 y effects associated with cleaning up an oil spill.
20 aim to find the responsible source(s) of the spill.
21 of crude oil in the environment after an oil spill.
22 her, conceived before and after a nearby oil spill.
23 consequence of biological synthesis and oil spills.
24 heir activities that control the fate of oil spills.
25 ight of a coffee cup can both lead to coffee spills.
26 g models that predict the fate of marine oil spills.
27 urfaces contaminated by uncontrolled patient spills.
28 generated dissolved organic matter from oil spills.
29 mental monitoring and risk assessment of FPW spills.
30 ominates microbial communities following oil spills.
31 en neighboring countries to mitigate any oil spills.
32 s such as wastewater treatment plants or oil spills.
33 Hs) in marine sediments as the result of oil spills.
34 f remediation and managing efforts after oil spills.
35 cts in populations following exposure to oil spills.
36 ment and buildings, and containment of agent spills.
37 in degrading petroleum after accidental oil spills.
38 s of fish are particularly vulnerable to oil spills.
39 ompared to GoM, global data and previous oil spills.
40 d impact of hydrocarbons released during oil spills.
41 soil/sediment following the traditional oil spills.
42 disturbances, especially hurricanes and oil spills.
43 y in the Arctic may increase the risk of oil spills.
44 gainst oil exposure during cleanup of future spills.
45 e microbial communities following marine oil spills.
46 working as a commercial fisherman before the spill (1.38, 1.21-1.57; and 2.01, 1.58-2.55, respectivel
48 exico in 2010, one of the largest marine oil spills(1), changed bacterial communities in the water co
53 ldwide concern because of the increasing oil spill accidents and industrial oily wastewater generatio
61 opulations in natural oil ecosystems and oil spills, along with available underlying physicochemical
62 bons released from the Deepwater Horizon oil spill and deposited in marine sediments, this study char
64 AF) from slick oil collected during the 2010 spill and gradations of natural sunlight in a fully fact
65 saltmarsh ecosystem from 9 to 48 months post-spill and identify highly oxidized Macondo well oil comp
67 occur during crude oil production as well as spills and cause difficulties to efficient remediation p
70 sel (LSMD) is frequently involved in coastal spills and monitoring ecosystem damage, and the effectiv
73 o (collected after the Deepwater Horizon oil spill) and an asphalt volcano sample collected off the c
74 al means by which humans stave off slipping, spilling, and tilting disasters while manipulating objec
76 following disasters such as hurricanes, oil spills, and tsunamis, which may lead to increased popula
77 amination impacting shores after a major oil spill; and following the Deepwater Horizon (DWH) acciden
78 nd locations after the Deepwater Horizon oil spill are also shown to contain ketones/aldehydes, and c
79 mmediate effects on an ecosystem from an oil spill are clearly recognizable, however the long-term ch
85 d October 2011, disclose that the sinking of spill-associated substances, mediated by marine particle
87 ion rates occurring for ~1-2 years after the spill at sites with the highest amounts of plant stem oi
89 ty and ease of transportation by eliminating spilling because its high melting temperature means it i
90 lth effects have been reported following oil spills but few studies have identified specific responsi
91 little is known about the degradation of oil spills by solar radiation and the impact of nutrient lim
95 disturbances such as sea level rise and oil spills can potentially reduce marsh capacity for N remov
97 ested on samples from a number of diesel oil spill cases, (i) distinguishing chemically similar sourc
98 -accommodated fraction (WAF) of oil from the spill causes developmental toxicity through cardiac defe
99 rt of workers and volunteers involved in oil spill clean-up after the Deepwater Horizon disaster.
104 f oil spills on the nitrogen cycle under oil spill conditions, and in improving current bioremediatio
105 on for hazard responses, such as SAR and oil spill containment, and hence have the potential to save
109 rdized regulatory requirements for reporting spills could improve the accuracy and speed of analyses
114 remediated sites of underground storage tank spills demonstrates that composition of hydrocarbons in
117 NIFICANCE STATEMENT Clumsy disasters such as spilling, dropping, and crushing during our daily intera
118 ndirect effects of the Deepwater Horizon Oil Spill (DWH) on northern Gulf of Mexico (nGoM) reef fish
123 rface oil residues from the Exxon Valdez oil spill (EVOS) along the shorelines of Prince William Soun
127 ned to investigate relationships between oil spill exposures and multiple potential physical and ment
129 Following the Deepwater Horizon (DWH) oil spill, field studies from a few sites suggested that oil
130 g the possible detrimental outcomes of toxic spills, for example oil spills, in relatively simple com
135 stal and offshore waters impacted by the DwH spill further revealed the changing nature of fluorescen
136 hereby describe an unusual case of infected spilled gallstones in the right sub-phrenic space, prosp
138 nse and cleanup of the Deepwater Horizon oil spill (Gulf of Mexico) and heart attack risk among 24,37
139 monstrate that sediments impacted by the DWH spill had returned to near baseline conditions after 2 y
140 accommodated fraction (WAF) of oil from the spill has been shown to cause cardiac toxicity during ea
141 area and timing of the Deepwater Horizon oil spill highlight the need to study oil and hypoxia exposu
142 iment extracts collected over 48 months post-spill highlights the chemical complexity of highly polar
143 igate some of the effects of a potential oil spill, however, the effect of dispersant is ambiguous an
145 ations were at prespill conditions after the spill in 2012 and 2013 near the DwH site, the variable a
147 within 16 km of the wellhead during the oil spill in May 2010, which included one typical subsurface
151 nology was applied to the largest marine oil spill in U.S. history (The 2010 Deepwater Horizon oil sp
152 Horizon Oil Spill (DHOS) is the largest oil spill in U.S. history, negatively impacting Gulf Coast r
153 Deepwater Horizon was the largest marine oil spill in U.S. waters, oiling large expanses of coastal w
154 Crude 4-methylcyclohexane methanol (4-MCHM) spilled in a river and then contaminated drinking water
156 norganic contamination associated with brine spills in North Dakota is remarkably persistent, with el
161 , the direction of the major axis of the oil spills, in most of the cases examined, is oriented accor
162 al outcomes of toxic spills, for example oil spills, in relatively simple communities such as often f
164 lement of the concerted effort to respond to spills includes the ability to rapidly classify and char
165 sulting from the Deepwater Horizon (DWH) oil spill, including the use of the oil dispersant COREXIT i
168 trend for east and northeast movement of oil spills into the Levantine Basin, affecting the coastal a
171 and PTSD, but after taking into account oil spill job experiences, only the association between the
178 conventional spectroscopic equipment for oil spill monitoring and fingerprinting in aqueous systems h
183 dings indicate that discharge and accidental spills of OGW to waterways pose risks to both human heal
184 esses change the chemical composition of the spilled oil and make the matching of oil spill samples t
185 hemical forces influencing the weathering of spilled oil have been investigated for decades, the envi
187 evidence suggesting that the effects of oil spills on neonatal mortality persist for several years a
188 on is paramount in predicting impacts of oil spills on the nitrogen cycle under oil spill conditions,
190 r as commonly occurred during a deep-sea oil spill or a natural seep, and enables detailed observatio
191 arge amount of hypersaline wastewater, whose spills or discharges may significantly increase the brom
192 perturbations (e.g., extreme weather, toxic spills or epizootics) severely reduce the abundance of a
193 orescence has to deal with multiple pathways spilling out low-energy long tail, that causes poor reso
194 , surfaces with substantial electron density spill-out give rise to electric fields with a much slowe
196 vity overestimation in the object center and spill-out of counts from the object edges-remain of rele
200 was an enlarged volume of interest including spilled-out counts, method 4 was activity concentration
201 in these observations with the Texas A&M Oil spill/Outfall Calculator (TAMOC), which models the press
202 Individual contributions to the public good spill over and benefit members in each group to differen
204 hat the inhibitory neurotransmitter GABA can spill over between axon terminals to cause excitation of
205 asing evidence that species and interactions spill over between habitats, calling for further study o
210 ted by the involved allergens suggesting the spill over of locally synthesized specific IgE to the ci
211 tivation and lipid oxidation in the lung can spill over systemically, leading to metabolic dysfunctio
212 that GABA release evoked from MNTB axons can spill over to neighboring MNTB axons and cause excitatio
214 this lineage infecting poultry in Asia have spilled over into wild birds and spread via bird migrati
215 imentary record suggests that meltwater only spilled over the threshold at the peak of the surge of E
217 S. commercial swine population, subsequently spilling over into exhibition swine, and caused a majori
221 eedforward glutamatergic transmission, which spills over to allow cross talk between terminals in the
223 rvoir hosts is crucial to inform the risk of spill-over events, yet our understanding of these dynami
227 se in the endemic rate of animal-human viral spill-overs in Africa by 2070, given current modes of he
228 en decades of production and hundreds of oil spills per year, there were no comprehensive baselines f
230 method by assessing the short-term risks oil spills pose to polar bears, ringed seals, and walrus in
231 with C. atrox venom will produce fibrinogen spilt products, thereby upregulating fibrinogen levels,
233 Reporting rates varied by state, affecting spill rates and requiring extensive time and effort gett
234 en 2011 and 2013 collected information about spill-related activities, demographics, lifestyle, and h
235 il-August of 2010, the Deepwater Horizon oil spill released approximately 4 million barrels of oil in
237 during the 2010 Deepwater Horizon (DWH) oil spill released numerous pollutants, including combustion
239 ave important implications for enhancing oil spill remediation efforts in beach sands and coastal sed
240 diation is a low-cost approach for crude oil spill remediation, but it is often limited by electron a
243 environment including: immobilisation of oil spills, removal of dyes, extraction of heavy metals or t
245 m lists of individuals who worked on the oil spill response and clean-up or received safety training.
247 ers (hired after completing training for oil spill response and clean-up) and 2225 non-workers (compl
249 of chemical oil dispersants used in the oil spill response and cleanup (OSRC) work following the Dee
256 ce of spatially explicit season-specific oil spill risk assessment in the Arctic and that environment
257 dy reports key information for improving oil spill risk assessment models and presents a novel approa
258 nd speed of analyses to identify and prevent spill risks and mitigate potential environmental damage.
259 ls, (ii) investigating weathering effects on spill samples to determine type and degree of weathering
261 ence of heavy metals in urban water and mine spill samples, based on the the dynamic transcription pr
264 population of marine phytoplankton under oil spill-simulated conditions, and compare it to that of th
268 background waters, and soil and sediment in spill sites had elevated total radium activities ((228)R
269 elevated levels of contaminants observed in spills sites up to 4 years following the spill events.
270 r to that recognized internationally for oil spill source identification, is proposed for use in conj
275 hough the oil persists six decades after the spill, sufficient uncontaminated sediment has covered th
276 and DOC concentrations three years after the spill suggest the potential long-term persistence of the
277 rom sea surface and deep plume waters of the spill that assimilate alkane and polycyclic aromatic hyd
279 and highlight local disturbances (e.g., oil spills) that kill wetland plants as agents that can acce
280 ced two of the largest accidental marine oil spills, the 1979 Ixtoc-1 blowout and the 2010 Deepwater
281 n and the whole-body burden recovery after a spill), then the nonsteady-state formulation should be e
282 enced accelerated erosion as a result of the spill, these habitat impacts would represent additional
283 cid (PFOA)) from the solution state (after a spill) through the gel-state and finally into the true s
284 testing was conducted 2 weeks following the spill to understand resident perceptions, tap water chem
286 across scales ranging from local contaminant spills to global fluxes of methane emanating from ecosys
287 iments impacted by the Deepwater Horizon oil spill using a combination of (29)N2 and (30)N2 productio
288 for the analysis and matching of diesel oil spills using two-dimensional gas chromatography-high res
290 centrations of dissolved salts (Na, Cl, Br), spill waters also consisted of elevated concentrations o
292 sediment samples collected within 4 y of the spill, we develop a Macondo oil "fingerprint" and conser
293 bsequent to the 2010 Deepwater Horizon (DWH) spill, we implemented Gulf-wide fish surveys extending o
295 Exposure measurements taken during the oil spill were used with questionnaire responses to characte
296 sceptible to evaporation, and photo-oxidized spills were also matched due to the presence of unaffect
299 nt health impacts of THC exposure during oil spill work, and results support increased protection aga
300 xico) and heart attack risk among 24,375 oil spill workers enrolled in the Gulf Long-Term Follow-up S