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1 al scenarios (rainfall, river flow rate, and water quality).
2 but there are no guidelines for handwashing water quality.
3 ting the benefits of treatment to downstream water quality.
4 g strategies for managing inland and coastal water quality.
5 ortant for the effective management of local water quality.
6 FWs on nutrient-based (nitrogen, phosphorus) water quality.
7 s a risk for aquatic ecosystems and drinking water quality.
8 monstrating its potential use for monitoring water quality.
9 trophication in fresh waters and maintaining water quality.
10 vestigating future climate change impacts on water quality.
11 fectant exposure, causing the degradation of water quality.
12 understanding of how NFWs affect downstream water quality.
13 and expenditures by the groups also improved water quality.
14 onments for removing pathogens and improving water quality.
15 rovide ecosystem services that help maintain water quality.
16 ng the monetary impact of efforts to improve water quality.
17 al alteration of soil by wildfire can affect water quality.
18 alence of harmful algal blooms that threaten water quality.
19 treatment is an important aspect in terms of water quality.
20 so impact pollutant sources and trigger poor water quality.
21 can result in severe degradation of product water quality.
22 ify mechanisms by which urbanization impacts water quality.
23 rship with child growth and household stored water quality.
24 efforts to mitigate the impacts of runoff on water quality.
25 ess hydrologic systems and impact downstream water quality.
26 own to cause detrimental loss of the product water quality.
27 study challenges to maintaining private-well water quality.
28 nitation access on child health and drinking water quality.
29 ng plumbing following a transition in source water quality.
30 owth conditions affecting the final drinking water quality.
31 mination, and the effect of rainfall on well water quality.
32 purposes and in risk assessment of microbial water quality.
33 eds have not seen substantial improvement in water quality.
34 om overfishing, habitat destruction and poor water quality.
35 entiate hydrological processes that affected water quality: (1) in the upper watershed, runoff dilute
36 idual wetlands have the potential to improve water quality(2-9), little is known about the current ma
38 stry to high-frequency measurements of river water quality across six watersheds (five impacted by oi
39 lthough 60% of studies found improvements in water quality after implementation of Best Management Pr
40 ies that were unable to find improvements in water quality after the implementation of BMPs, the lack
41 ng to Lake Erie as a part of the Great Lakes Water Quality Agreement, Lake Erie appears to be undergo
48 hough bedrock weathering strongly influences water quality and global carbon and nitrogen budgets, th
49 bacterial blooms are an increasing threat to water quality and global water security caused by the nu
50 e utilised as a bio-indicator, for assessing water quality and health status of a given freshwater sy
52 n environmental analysis because they impact water quality and introduce potential (eco)toxicological
53 cation of LSWT has numerous consequences for water quality and lake ecosystems, so quantifying this a
57 oms (cyanoHABs) are a serious environmental, water quality and public health issue worldwide because
58 kstoves have been widely promoted to improve water quality and reduce fuel use, but there is limited
59 the intervention improved household drinking water quality and reduced caregiver-reported diarrhea am
60 g (MST) methods are powerful tools to manage water quality and support public health risk assessment.
61 f can salinize freshwaters and threaten lake water quality and the many ecosystem services lakes prov
65 s area was lost due to disease, deteriorated water quality, and coastal development, with losses peak
66 sses, which provide nursery habitat, improve water quality, and constitute a globally important carbo
67 complex interactions of land-use practices, water quality, and ecological integrity of streams, the
68 f environmental conditions, photoreactivity, water quality, and engineering design in the sunlight in
70 valve molluscs quality depends mainly on the water quality, and then by a series of factors such as w
71 to improve nutrition status, sanitation, and water quality are important to reduce enteric infections
72 ex, we find that while reefs exposed to poor water quality are more resistant to coral bleaching, the
73 eased frequency of summer heatwaves and poor water quality are two of the most prevalent and severe p
74 case for universal screening of private well water quality around arsenic, the most toxic and widespr
76 outine environmental monitoring and drinking water quality assessment since the guideline value set b
78 ferences in accuracy related to the types of water quality assessment tools used by citizen scientist
81 t be fully captured in future ecological and water quality assessments, if the apparent resistance of
84 endment has the potential to broadly improve water quality at the watershed scale, particularly when
86 titioned among 6 EH topic areas: a) drinking water quality, b) wastewater management, c) healthy home
88 Environmental Protection Agency estimates of water quality benefits, fuel-switching benefits, and reg
90 Measurements of carbon metabolism, effluent water quality, biofilm sloughing rate, and microbial div
92 flooding and leading to major alterations of water quality, biogeochemistry, and ecological condition
93 y functions, such as food web production and water quality, but an increasing frequency and intensity
94 g (NGS), provide new insights into microbial water quality, but considerable uncertainty remains arou
95 )-catalyzed recrystallization, can influence water quality by causing the incorporation/release of en
96 potential degradation of ground and surface water quality by high-salinity produced water generated
97 merging strategy to deliver improved surface water quality by responsive operation according to real-
100 little human alterations experienced minimal water quality changes and had relatively rapid recoverie
101 vely characterised by organisms sensitive to water quality changes such as diatoms, single-celled alg
103 CH(4) and dissolved organic carbon) and soil-water quality characteristics in an intact and a degrade
105 s drinking water as a rational benchmark for water quality comparison, explicitly recognizes that con
106 response profiles is that under many typical water quality conditions, MLR- and BLM-based criteria ar
110 rd error) degrees C of warming was paid by a water-quality credit equivalent to 0.89 (+/-0.04) degree
113 ) in the Delaware River currently exceed the Water Quality Criteria of 16 pg/L for the sum of PCBs du
114 ation and recovery; (3) to propose numerical water-quality criteria as targets for restoration; (4) t
116 e, we gathered physiochemical and biological water quality data from 2010 to 2016 to evaluate charact
119 ars of high-resolution aerial monitoring and water quality data to elucidate the patterns and drivers
121 High spatial resolution hydrological and water quality datasets indicate that metal-rich groundwa
127 that ASGM is fundamentally altering optical water quality dynamics of a critical tropical biodiversi
128 solar water purification system with assured water quality, especially for economically stressed comm
129 to conventional tillage (CT), its impact on water quality, especially nitrate (NO3(-)) loss remain c
133 ovide critical information to policy makers, water quality experts, and risk assessment professionals
136 mmit to identify options to improve drinking-water quality for N.C. residents served by private wells
138 thmandu Valley, there is high variability of water quality from different sources, including for trea
139 propose that a reduced hydroperiod and lower water quality from reduction in water level and flow lim
140 11.3%) was then used to evaluate the product water quality from the large-scale DCMD treatment of oil
142 o meet global, national, regional, and local water quality goals effectively and comprehensively.
145 ed this method to calculate climate-adjusted water quality guideline values (GVs) for two reference t
146 ns to the Australian and New Zealand default water quality guideline values (WQGVs) showed no marine
150 ssments and in the development of regulatory water quality guidelines in Europe, and in 2007 the Unit
152 PAF method enabled the adjustment of current water quality GVs to account for thermal stress events.
153 ge, while child weight-for-age and household water quality had nonlinear relationships that leveled o
155 LAGOS-NE was used to quantify whether lake water quality has changed from 1990 to 2013, and whether
157 counterparts in an effort to understand the water quality impacts of Harvey on the natural water sys
162 od extent mapping method, examined potential water quality implications of two "500-year" hurricanes
163 ting additional climate warming in this way, water quality improvements appear to have offset recent
165 ecreased in 91 watersheds with no consistent water-quality improvements, and balances increased in 52
167 to be able to rapidly and accurately measure water quality in a cost-effective manner using e.g., a t
168 to test alternative hypothesized controls on water quality in a pit lake over approximately 8 years.
172 e impact of Hurricane Maria (HM) on drinking water quality in Puerto Rico (PR) by integrating targete
176 ts suggest that flushing can quickly improve water quality in unoccupied buildings, but the improveme
182 A gradient-boosted classifier with seven water quality inputs was comparable in detecting microcy
188 r or longer recovery time for Gulf of Mexico water quality is highly uncertain, and that much shorter
189 Unlike public water systems, private well water quality is not monitored, and there are few studie
192 n water resistome is a topic of interest for water quality, mainly under re-use and One-Health perspe
199 o integrate a broader perspective into local water quality management, in the Chesapeake Bay and in t
200 r assessing potential impacts and developing water-quality management strategies associated with this
201 th seasonal and climatic factors, additional water quality measures, and treatment data may enhance p
206 ndwater contamination and improved long-term water quality monitoring compared solely to isotopic and
207 complements to chemical analyses in standard water quality monitoring efforts would allow for more co
211 ising for the development of simple low-cost water quality monitoring system for monitoring of BPA in
212 approach shows promise for rapid and direct water quality monitoring to provide a holistic assessmen
219 upling climate projections with a hydrologic/water quality network model of the contiguous United Sta
220 gressive nutrient reduction goals to achieve water quality objectives for the Chesapeake Bay estuary.
223 and management efforts over recent decades, water quality of lakes in the Midwest and Northeast U.S.
224 the respective WWTP but also influenced the water quality of one of Europe's most important river sy
226 as nutrient pollution sources could improve water quality outcomes, while allowing cities to enjoy t
229 tter-explained the short-term variability in water quality parameters and bacterial community composi
230 linear regression analyses prioritized three water quality parameters linked to agricultural and deve
232 ere not explained by faster growth, measured water quality parameters, or innate immune enzyme activi
233 aily measurements of weather, hydrology, and water quality parameters, to generate a novel data set w
239 clining globally as climate change and local water quality press environmental conditions beyond the
240 nities growing on biofilters affect filtered water quality primarily through the biotransformation of
241 g sewage physicochemical properties, using a water-quality probe, flow volume, catchment population,
242 limatic and human effects strongly influence water-quality properties in estuarine-coastal ecosystems
243 c effects; (2) to assess long-term trends of water-quality properties reflecting degradation and reco
244 ely explain high inter-annual variability of water-quality properties, requiring adjustments to resol
245 nding suggests that adequate investments for water-quality protection and water-use efficiency can pr
246 ventional drinking waters as a benchmark for water quality receiving regulatory and widespread public
247 future scenarios for several contributions: water quality regulation, coastal risk reduction, and cr
249 cts of Fe(2+)-catalyzed recrystallization on water quality requires knowing the time scale over which
250 One factor that can help explain the lack of water-quality response is remobilization of accumulated
252 ected areas, catchment management to improve water quality), restoration, as well as global and natio
253 shwater mussels are sensitive to habitat and water quality, revealing the fastest rates of human-medi
254 portance of these compounds to final product water quality, samples were collected from six potable w
255 merous observational studies have shown that water quality, sanitation, and handwashing (WASH) in a h
261 e membrane aerated bioreactor with real-time water quality sensors was used to treat household greywa
263 n concentrations of chloride that can exceed water quality standards intended to protect aquatic life
264 ave adopted BLM-based Cu criteria into their water quality standards on a state-wide basis, which app
266 ompounds are possible candidates for further water-quality studies in watersheds affected by wildfire
268 y framework and uncertainty in treatment and water quality targets are barriers to wide-scale adoptio
271 n scientists and compared their results from water quality testing of water samples to results obtain
275 efits provided to people, and potentially to water quality through reduction of stormwater volume by
277 mmunities in biofilters can improve drinking water quality through the biodegradation of dissolved co
278 tudies indicate that zooplankton may improve water quality through viral uptake or may serve as vecto
279 ogic model of anthropogenic impacts to urban water quality to include exchange with the subsurface.
280 racterize how a user's prior experience with water quality tools was associated with the accuracy of
281 by citizen scientists using rapid assessment water quality tools, and (2) to characterize how a user'
284 tect anomalies caused by technical errors in water-quality (turbidity and conductivity) data collecte
285 lls/particles in large dilute samples (e.g., water quality, urine analysis), or high-throughput scree
286 cted and evaluated the "best" model for each water-quality variable, environment, and anomaly type.
287 n to 45 million people have been affected by water quality violations in each of the past 34 years.
290 results indicate that point of use drinking water quality was impacted by conditions in the source w
291 erformance of high salt removals and product water quality was maintained in three repeated semibatch
292 ved empirical knowledge of the links between water quality, water level fluctuations, and emissions a
294 h well/hauled water accurately predict their water quality, while those with treated+piped water tend
295 step to reducing nitrogen load and improving water quality will be containment and careful management
296 onditions, we find that 6-17% improvement in water quality will be necessary to bring recovery rates
299 esigned to reduce eutrophication and improve water quality, WWTPs increasingly release a multitude of