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1 rust, but no media flow as in air, water, or sand.
2  from a major phase in the precursor arkosic sand.
3  through laboratory columns containing beach sands.
4 imate primary and secondary HNCO for the oil sands.
5 ted States, with a focus on the Canadian oil sands.
6 turable enterococci populations in high-tide sands.
7 tores in soil coarse (250-2000 mum) and fine sand (53-250 mum) fractions.
8 ree different types of floor surfaces: beach sand, a paved street or grass.
9 mining and upgrading of Athabasca bituminous sands (ABS).
10          Exponential decay of gull marker in sand amended with live Catellicoccus marimammalium sugge
11 ips between sets of co-varying organisms and sand and mud contents, and positive relationships with t
12 l locomotion on flowable substrates, such as sand and mud of variable stiffness and incline.
13 ated fecal indicator bacteria (FIB) in beach sand and pore water represent an important nonpoint sour
14 l as depletion of E. coli from the foreshore sand and pore water.
15 in forest, including terra firme clay, white-sand and seasonally flooded forests in Peru and French G
16 g(0), and HgS nanoparticles) was measured in sand and soil packed columns with partial water saturati
17 e particulate matter emission potential of a sand and two agriculturally important soils amended with
18            We place unconventional oils (oil sands and oil shale) alongside shale gas, coal, lignite,
19                              Foreshore beach sands and pore water may act as a reservoir and nonpoint
20 pores were retained in IOCS than in uncoated sand, and at pH 4.0 than at pH 7.7, which likely resulte
21 lations with FIB concentrations in seawater, sand, and eelgrass.
22 ecovery of agent was optimized from foliage, sand, and glass in a simulated biothreat scenario using
23 conventional formations (e.g., shales, tight sands, and coal seams) has raised concern about potentia
24 grading activities in Canada's Athabasca oil sands (AOS) region has led to concerns about emissions o
25 iver for the exploitation of the Alberta oil sands are based on an untenable assumption of the repres
26 ream oil and gas sector (excluding mined oil sands) are likely at least 25-50% greater than current g
27 n issue of increasing importance for the oil sand areas in Alberta, Canada.
28 hich WB3 was isolated was brown, Pleistocene sand at a depth of 35.2 m below ground level (mbgl).
29 glass beads packed at a constant density and sand at a different dry bulk density.
30              Chickpea grains were roasted in sand at three temperatures (180, 200 and 220 degrees C)
31 r scCO2-brine, and in limestone and dolomite sands at 23 degrees C (0.1 MPa) for air-brine using a ne
32 tion Pc-Sw curves were measured in limestone sands at 45 degrees C under elevated pressures (8.5 and
33           We conducted experiments in quartz sands at low volumetric water contents (theta) to quanti
34                   Traditionally heavy oil in sands at shallow depths is accessed by large scale minin
35  weather the abundance of enterococci in dry sands at the mean high-tide line was significantly posit
36 This paper presents data collected at a fine sand beach on Lake Huron, Canada over three field events
37 during intensified wave conditions at a fine sand beach, comparative characterization of the E. coli
38 tal wetlands, such as marshes and mangroves, sand beaches and dunes, seagrass beds, and coral and oys
39  discharge may be more important for coarser sand beaches.
40  TOrC biodegradation and (2) biochar-amended sand bearing DOC-cultivated biofilms would achieve enhan
41                                  The smaller sand bed depths in the bucket-sized filters did not impa
42                       Upgrading converts oil sands bitumen into high quality synthetic crude oil (SCO
43 her contributions from heavy crude oils, tar sands bitumen, and petroleum coke.
44 hwest Portuguese margins, on muddy and muddy-sand bottoms between 200 and 700 m water depths, while i
45 g the threshold wind speeds required to move sand by saltation, or by short bounces, has not been tes
46 an 100 kilometres upstream is converted into sand by the time it reaches the Ganga Plain.
47 l iron oxyhydroxides in the gray Pleistocene sands by organic matter infiltrating from riverbeds duri
48  arsenic desorption from ferrihydrite coated sands by variable loads of organic carbon was investigat
49 ks and spend several weeks per year building sand-castle "bowers" several times their size.
50 y significant cold heavy oil production with sand (CHOPS), airborne measured methane fluxes were five
51 le sand (Fluv), clinopyroxene-dominated lava sand (Cl-LS) and zeolite-dominated lava sand (Ze-LS), ai
52 tion of the E. coli distribution at a coarse sand-cobble beach suggests that interstitial pore water
53 ious conditions, including the height of the sand column (H) and porous bed (h) and the diameter of t
54 ncomitantly an enhanced retention within the sand column, compared to the nonchemotactic control.
55                                              Sand columns containing just 0.5 wt % biochar maintained
56  kinetics, 0.2 wt % MCG-biochar in saturated sand columns retained TOrCs more effectively than 1.0 wt
57 tention of HANPs and GNPs in water-saturated sand columns under environmentally relevant transport co
58 n that of E. coli K12 in all biochar-amended sand columns.
59 rongly limited the mobility of such PNDSS in sand columns.
60 ining mostly (immature) plant derived OC and sand containing mostly thermally mature derived OC.
61                                      Mud and sand content and the presence of microbial heterotrophic
62 etrochemicals from the surface mining of oil sand deposits results in generation of large volumes of
63          Large-scale oil production from oil sands deposits in Alberta, Canada has raised concerns ab
64 ns around the world, with Canada home to oil sands deposits of 1.7 trillion barrels.
65 ure steam (~200 degrees C) injected into oil sands deposits to liquefy bitumen.
66               We thus suggest that these oil-sand-derived components can be used as sensitive tracers
67             In this context, the fate of oil-sand-derived organic material in the tailings sands used
68 y to environmental impact assessments of oil sands developments.
69      The results show that the height of the sand does not affect the speed of the sand flow.
70 fossil calibrated phylogeny of the new world sand dollar genus Encope, based on one nuclear and four
71  basis of development in cidaroid echinoids, sand dollars, heart urchins, and other nonmodel echinode
72 ng are soaking paddy in water, roasting with sand, drying and milling.
73 lis and Neoregelia cruenta, from a Brazilian sand dune forest.
74  such as the scenery of a pine forest or the sand dunes in a windy desert.
75 econdary organic aerosol production from oil sands emissions.
76                 The data show that foreshore sand erosion as wave height increases results in elevate
77    While calculations suggest that foreshore sand erosion may be the dominant mechanism for releasing
78 tion of not only wave height (and associated sand erosion) but also the time elapsed since a precedin
79 d-order model, which implies that the quartz sand exhibited substantial surface heterogeneity and tha
80                      The contribution of oil sands exploration to secondary organic aerosol formation
81 n aquifers in close proximity to in situ oil sands extraction in the Cold Lake area, Alberta, Canada
82       Pathway-average GHG emissions from oil sands extraction, separation, and upgrading ranged from
83 d from off-road diesel activities within oil sands facilities, and an additional 116-186 kg hr(-1) fo
84          When exposed to progesterone-spiked sand, fathead minnows (Pimephales promelas) exhibited si
85  NMR well-logging probe to monitor MICP in a sand-filled bioreactor, measuring NMR signal amplitude a
86  and necromass) and total organic C (TOC) of sand-filled mycelium in-growth bags.
87 and two coliphages (MS2, T4) on transport in sand-filled percolated columns.
88 cid (2,6-DCBA) was evaluated in samples from sand filters (SFs) of drinking water treatment plants (D
89 estrogen exposure on the performance of slow sand filters (SSFs) used for water treatment.
90 ersity observed between different waterworks sand filters could be explained by the geochemistry of t
91  microbial community in groundwater-treating sand filters has practical potential, for example, when
92 nitrifying bacterium in groundwater-treating sand filters.
93 formed HBQ FPs by 10-30%, whereas anthracite/sand filtration and UV irradiation appeared to have no i
94                                        Rapid sand filtration is essential at most waterworks that tre
95                                              Sand filtration is frequently applied in drinking water
96 mania major to humans by female phlebotomine sand fl ies.
97 e where it was discovered, was isolated from sand flies (Psathyromyia abonnenci, formerly Lutzomyia a
98  distribution reduces the expected number of sand flies acquiring parasites, it increases the infecti
99                                 Phlebotomine sand flies are hematophagous insects that harbor bacteri
100 attractive to a greater proportion of female sand flies as the infection progresses.
101 icantly more attractive to 50% of the female sand flies at the end of infection compared to before in
102 icantly more attractive to 75% of the female sand flies at the end of infection.
103                                     Notably, sand flies efficiently acquired parasites after feeding
104                      The bites of uninfected sand flies favor the transmissibility of L. donovani by
105 rasites, it increases the infection load for sand flies feeding on a patch, increasing their potentia
106                                          The sand flies have adapted to various ecological niches in
107                             The abundance of sand flies in IRS and non-IRS villages was significantly
108 s and enterobacteria, both are shared in the sand flies in the two regions.
109                                              Sand flies inject saliva while feeding in the vertebrate
110 e that prior exposure to bites of uninfected sand flies potentiates their ability to transmit infecti
111 he blood or skin as a source of infection to sand flies remains unclear, and the possible effect of m
112                    Exposure to L. intermedia sand flies skews the human immune response, facilitating
113                            The proportion of sand flies testing positive for DNA from a given plant f
114                                              Sand flies were collected from different towns (Karaburu
115                 After sterile washing steps, sand flies were dissected and guts were separated.
116          Microbiome profiling of wild-caught sand flies will be of great help in the investigating of
117 biota by pretreatment of Leishmania-infected sand flies with antibiotics or neutralizing the effect o
118 udied plant feeding of Lutzomyia longipalpis sand flies, known vectors of Leishmania infantum/chagasi
119 hroids, and susceptibility profile of Indian sand flies, the continued use of DDT in this IRS program
120                                         From sand flies, we isolated most of the known Phlebovirus st
121 d are transmitted by bites from phlebotomine sand flies.
122 ckettsia were reported for the first time in sand flies.
123 Fabaceae family was detected in 94.7% of the sand flies.
124                        All patients infected sand flies.
125 ism of Leishmania transmissibility to vector sand flies.
126 nated papers was determined with wild-caught sand flies.
127 rasite patches that govern infectiousness to sand flies.
128 y blood-feeding female Lutzomyia longipalpis sand flies.
129  vaccinated dogs that are also infectious to sand flies.
130                             The speed of the sand flow (v) decreases with an increase in h until h ap
131 of the sand does not affect the speed of the sand flow.
132 geochemistry were therefore performed on oil sands fluid petroleum coke deposits in Alberta, Canada.
133 cted wetlands (CWs) consisting of fluviatile sand (Fluv), clinopyroxene-dominated lava sand (Cl-LS) a
134 sediment influx should result in an elevated sand flux, leading to distinct patterns of aggradation a
135  to endogenous self-Dsg1 and exogenous LJM11 sand fly Ag.
136 e, we demonstrate that gut microbes from the sand fly are egested into host skin alongside Leishmania
137  the way to function characterization of the sand fly associated microbiome.
138 are introduced into mammalian skin through a sand fly bite, but different species cause distinct clin
139 ns have proven to be effective in preventing sand fly bites, and subsequently infection.
140 ion for developing intervention strategy for sand fly control.
141  greatly facilitate the understanding of the sand fly ecology, which would provide critical informati
142 cales provide the best fit with experimental sand fly feeding data, pointing to the importance of the
143 ngs suggest that the ecological diversity of sand fly in Sichuan and Henan may contribute to shaping
144 ment site inside the alimentary tract of the sand fly insect vector.
145                                              Sand fly Phlebotomus chinensis is a primary vector of tr
146  shown for the first time in the wild-caught sand fly populations of Turkey.
147 experiments demonstrate that pre-exposure to sand fly saliva confers protection against leishmaniasis
148 mmune activation, oxidative stress, and anti-sand fly saliva IgG concentrations in dog sera with diff
149               A panel of biomarkers and anti-sand fly saliva IgG were measured in canine sera.
150 functional genomics approach to identify the sand fly salivary components that are responsible for th
151 moglein 1 (Dsg1) cross-reacts with the LJM11 sand fly salivary gland Ag.
152 laviviruses are rarely (if ever) vectored by sand fly species, at least in the Old World.
153  that the infectiousness of patients for the sand fly vector of visceral leishmaniasis is linked to p
154                            To survive in its sand fly vector, the trypanosomatid protozoan parasite L
155 y large skin lesions and is transmitted by a sand fly vector.
156 ave identified the first representative of a sand fly-associated flavivirus, Ecuador Paraiso Escondid
157 ocytic choriomeningitis virus (LCMV), or the sand fly-transmitted arbovirus Toscana virus (TOSV).
158 s 50 cm long were filled with sterile silica sand following five different setups combining fine and
159 ffective ureolysis was stimulated in coastal sand from a semiarid environment, with low initial ureol
160 ng such behaviour among leopards in the Sabi Sand Game Reserve, South Africa, associated with four no
161 gth of maternal care in leopards in the Sabi Sand Game Reserve, South Africa.
162  (QS) and positively charged goethite-coated sand (GQS) to assess the role of chemical heterogeneity.
163  and the diameter of the glass beads (D) and sand grains (d).
164  as coatings build up in layers around clean sand grains at 3%w/wC.
165  optically stimulated luminescence dating of sand grains, we demonstrate that flow of the Sutlej in t
166  from abrasion of large biochar particles by sand grains.
167     The addition of 2 wt % clay particles to sand greatly retarded the transport of all Hg species, e
168 it length of lightning strikes within quartz sand has a geometric mean of ~1.0 MJ/m, and that the dis
169  and the increase in oil production from oil sands has caused environmental concerns over the presenc
170                          SO2 VCDs in the oil sands have remained approximately constant.
171 s better over Jaipur, Gual Pahari, and White Sand High Energy Laser Systems Test Facility (HELSTF) (U
172 anaceous plant, Capsicum annum against moist sand in dual choice assays.
173 th iron-oxide-coated sand (IOCS) or uncoated sand in Na(+) or Ca(2+) background solution at pH 7.7 +/
174 d that distance from haul out, proportion of sand in seabed sediment, and annual mean power were impo
175  on the adjacent brown or more distant white sands in which U was U(VI).
176   The attachment of GO particles onto quartz sand increased significantly with increasing IS.
177 kg ha(-1) yr(-1), respectively, near the oil sands industrial center (the midpoint between the Syncru
178 ntrations that were (1) highest near the oil sands industrial center and (2) positively correlated wi
179 d inorganic N, also were higher near the oil sands industrial center than at more distant locations.
180 3255 km(2) sampling area surrounding the oil sands industrial center.
181              With growth of the Canadian oil sands industry, concerns have been raised about possible
182 tractable fractions of NAs obtained from oil sands-influenced water are active toward reproductive pr
183             NAs were extracted from aged oil sands-influenced waters by use of acid precipitation, an
184                                        Phage-sand interactions were described by colloidal filtration
185 fy solute diffusion from a high-permeability sand into and subsequently out of kaolinite clay layers
186  the cleavage of more exposed disulfide bond sand intracellular drug release.
187 urated columns packed with iron-oxide-coated sand (IOCS) or uncoated sand in Na(+) or Ca(2+) backgrou
188  matrices (foliage, exposed smooth surfaces, sand) is recommended for retrospective verification of a
189 ving higher stocks than those located on the sand islands in the northwest of the bay.
190 riverine influence located on tide-dominated sand islands), across elevation gradients, with distance
191                               If you walk on sand, it supports your weight.
192  airborne measurements over the Canadian oil sands, laboratory experiments and a box-model study to p
193 he succession was most obviously marked by a sand layer lasting from 1400 to 1900 AD in one of the an
194  physical/chemical parameters indicated this sand layer was not formed in a lacustrine environment, b
195 ly to register their traces on an underlying sand layer where they gained more grip during progressio
196 erature would be akin to building a house on sand - likely to fall at any moment.
197 olatility organic vapours from the mined oil sands material is directly responsible for the majority
198 e mobility of PAA-nano-ZVI within a standard sand medium.
199                              Fulgurites from sand mines in Polk County, Florida, USA were collected a
200 compositional variations over a complete oil sand mining and recultivation process chain.
201                                          Oil sands mining has been linked to increasing atmospheric d
202 in the subsurface, suggesting that utilizing sand mixed with biochar can act as a promising biofilter
203 line was significantly positively related to sand moisture content (ranging from <1-4%), and the dail
204                            Wind blowing over sand on Earth produces decimeter-wavelength ripples and
205 n rates of 45-84 tonnes per day make the oil sands one of the largest sources of anthropogenic second
206 r experiments confirm that the common use of sand or dust proxy is wholly inadequate for the predicti
207 e different setups combining fine and coarse sands or a mixture of both mimicking potential water tre
208 elayed and fluid coking), fine tailings, oil sands ore, and naturally exposed bitumen.
209 r plot was amended 16 years ago with process sand, organic matter, and seeded (partially treated), an
210 e plot was amended 16 years ago with process sand, organic matter, gypsum, and seeded (fully treated)
211 o the disordered forces between particles in sand organize, to keep you from sinking?
212  major industrial facilities such as the oil sands (OS), which consume large quantities of diesel fue
213 conditions, the amount of FIB accumulated in sand over 5-6 days was found to be sufficient to trigger
214 ain, were simultaneously introduced into the sand-packed column at equal concentrations.
215  simulate the transport of bacteria within a sand-packed column containing a distribution of chemoatt
216        Focus was placed on a continuous-flow sand-packed column in which a uniform distribution of na
217 drinking water conditions and harvested from sand-packed reactors before conducting suspended growth
218  profiles for Rb(+) and Br(-) in unsaturated sand packs were measured with a synchrotron X-ray microp
219 ol was strongly related to the percentage of sand particle.
220 ral ease of movement of seawater through the sand patties as shown with a (35)SO4(2-) radiotracer.
221                                 We collected sand patties deposited in the swash zone on Gulf of Mexi
222 tal fate and effects of "oxyhydrocarbons" in sand patties deposited on beaches are not well-known.
223 solved organic matter (DOM) leached from the sand patties under dark and irradiated conditions were s
224                   These results confirm that sand patties undergo a gradual dissolution of DOM in bot
225                                         When sand patties were exposed to simulated sunlight, a large
226 vated toxicity of leachates derived from oil sands petroleum coke.
227 of electrode composition, surface treatment (sanding, polishing, plasma treatment), and graphite sour
228 hat resulted from the melting of the natural sand present at ground zero (Alamogordo, NM) and incorpo
229                                   In the oil sands, primarily over an area of intensive surface minin
230  acid ([S,S]-EDDS), for the treatment of oil sands process-affected water (OSPW) at natural pH was in
231 This paper investigates the oxidation of oil sands process-affected water (OSPW) by potassium ferrate
232 n raised about possible seepage of toxic oil sands process-affected water (OSPW) into the Athabasca R
233                                       If oil sands process-affected water (OSPW) is to be returned to
234  Previously, we showed in vitro that the oil sands process-affected water (OSPW) organic fraction (OF
235 ecies from unprocessed and ozone-treated oil sands process-affected water (OSPW) was performed using
236 esults in generation of large volumes of oil sands process-affected water (OSPW).
237 on technology and product type output of oil sands projects, the WTW GHG emissions for gasoline and d
238 ied in mixtures of negatively charged quartz sand (QS) and positively charged goethite-coated sand (G
239 ogenic K12 strains in water-saturated Quincy sand (QS) columns amended with oxidized (OX) or unoxidiz
240 h aquifer with FIB primarily associated with sand rather than freely residing in the pore water.
241      E. coli initially attached to foreshore sand rather than initially residing in the pore water wa
242 nitoring Stations (AMS) in the Athabasca Oil Sands Region (AOSR) in Northeastern Alberta, Canada.
243                 Snowpacks in the Alberta Oil Sands Region (AOSR) of Canada contain elevated loadings
244 tic hydrocarbons (PAHs) in the Athabasca oil sands region (AOSR), but known sources cannot explain th
245                                      The oil sands region of northern Alberta is remote, with few roa
246  development activities in the Athabasca Oil Sands Region of northern Alberta, Canada, release NOx, S
247 lected during 2011-2014 in the Athabasca oil sands region were analyzed using two-dimensional gas chr
248 pling network sites across the Athabasca Oil Sands region were used to explore the application of in
249 vironmental contaminant in the Athabasca oil sands region, but the ecotoxicological hazards posed by
250 sed as a potential source marker for the oil sands region.
251 at biomagnifies through foodwebs) due to oil sands related activities.
252 , posing challenges to the monitoring of oil sands-related N and S deposition.
253 inium isotopes ((10)Be and (26)Al) in quartz sand removed by deep, ongoing glacial erosion on land an
254  zoospores were removed in IOCS and uncoated sand, respectively, due to a combination of strong surfa
255 igher bioavailability (i.e., coarse and fine sands) showed greater influence on PAE congener bioconce
256 sediment samples were size-fractionated into sand, silt, and (if possible) clay fractions as well as
257  metabolic litter component was found in the sand, silt, or clay fraction while the structural compon
258 opose that these micrometeorites formed when sand-sized particles entered Earth's atmosphere and melt
259 lar, with no apparent deposits of unresolved sand-sized particles.
260 same observations held for several different sand sizes.
261 nts were conducted with an undisturbed loamy sand soil to investigate the influence of flow interrupt
262 tics to the local environment, but other oil sands sources must also be considered.
263 n everyday activity, such as when walking on sand, suggests the existence of long-term motor memories
264             Furthermore, the fraction of the sand surface area that was favorable for retention (Sf)
265 e of column flood experiments through silica sand, systematically varying salinity and acidity condit
266          However, indigenous microbes in oil sands tailings ponds exposed to solvents rich in 2-methy
267 riments were conducted in a laboratory-scale sand tank packed with silt and aqueous tetrachloroethene
268         A life cycle-based model, OSTUM (Oil Sands Technologies for Upgrading Model), which evaluates
269                           Using 6603 days of sand temperature data recorded across 6 years at a globa
270 ys revealed seasonal and spatial patterns of sand temperature.
271                                              Sand temperatures at nest depths and implications for ha
272                                     Overall, sand temperatures were relatively cool during the nestin
273 d significantly smaller decay rates in beach sand than in seawater.
274 crease of total bacterial densities in beach sand than in seawater.
275 es and upgraders of the Athabasca Bituminous Sands, the largest reservoir of bitumen in the world.
276              Exploitation of the Alberta oil sands, the world's third-largest crude oil reserve, requ
277                        Moreover, the flow of sand through a fixed porous bed could be regarded as par
278 at investigate the speed of the flow of fine sand through a fixed porous bed of packed glass beads un
279 s are needed for the result that the flow of sand through a porous bed or multiple parallel pipes can
280 the inter- and intraspecific interactions of sand tiger sharks Carcharias taurus, we observed group b
281                                              Sand tigers spent up to 95 consecutive and 335 cumulativ
282  or changes in group size and composition of sand tigers, related to five behavioral modes (summering
283 ansporting microbial contaminants from beach sand to coastal water is unknown.
284 rrelation of dune orientation with effective sand-transporting winds suggests that large dunes may no
285 India along with a U.S. desert site at White Sand, Tularosa Basin, NM.
286 e transport simulations showed that, in this sand type, the contribution of recirculating seawater to
287 ded in seawater through medium-grained beach sand under transient and saturated flow conditions.
288 ss abundancy increased from 5% in the native sand up to 99% in the yeast-extract treatment.
289 reenhouse gas (GHG) emissions of current oil sands upgrading technologies, is developed.
290 d in environmental impact assessments of oil sands upgrading, and improved dust control from growing
291 and-derived organic material in the tailings sands used for reclamation is of utmost environmental im
292                                          The sand was also enriched with ammonium-chloride, where amm
293                                       Quartz sand was used as the porous medium and artificial ground
294 ce properties of GO nanoparticles and quartz sand were evaluated by electrophoretic mobility measurem
295 de (GO) nanoparticles attachment onto quartz sand were investigated.
296 fall, the transport trends observed in model sands were consistent with those measured in a sandy soi
297 f acid-washed glass beads or standard Ottawa sand, which presented less surface heterogeneity.
298                  Our data showed that mixing sand with PW350-UO at a 20 wt % application rate almost
299 iscus hannai (Gastropoda, Mollusca), and the sand worm Perinereis aibuhitensis (Polychaeta, Annelida)
300 lava sand (Cl-LS) and zeolite-dominated lava sand (Ze-LS), aiming at quantifying metal behaviour in C

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