FRINK Linked Data Fragments server

Matches in SemOpenAlex for { <https://semopenalex.org/work/W2783804392> ?p ?o ?g. }

• W2783804392 endingPage "141" @default.
• W2783804392 startingPage "132" @default.
• W2783804392 abstract "The widespread adoption of engineered wetlands designed for water treatment is hindered by uncertainties in system reliability, resilience and management associated with coupled biological and physical processes. To better understand how shallow unit process open-water wetlands self-colonize and evolve, we analyzed the composition of the microbial community in benthic biomats from system establishment through approximately 3 years of operation. Our analysis was conducted across three parallel demonstration-scale (7500 m2) cells located within the Prado Constructed Wetlands in Southern California. They received water from the Santa Ana River (5.9 ± 0.2 mg/L NO3-N), a water body where the flow is dominated by municipal wastewater effluent from May to November. Phylogenetic inquiry and microscopy confirmed that diatoms and an associated aerobic bacterial community facilitated early colonization. After approximately nine months of operation, coinciding with late summer, an anaerobic community emerged with the capability for nitrate attenuation. Varying the hydraulic residence time (HRT) from 1 to 4 days the subsequent year resulted in modest ecological changes across the three parallel cells that were most evident in the outlet regions of the cells. The community that established at this time was comparatively stable for the remaining years of operation and converged with one that had previously formed approximately 550 km (350 miles) away in a pilot-scale (400 m2) wetland in Northern California. That system received denitrified (20.7 ± 0.7 mg/L NO3-N), secondary treated municipal wastewater for 5 years of operation. Establishment of a core microbiome between the two systems revealed a strong overlap of both aerobic and anaerobic taxa with approximately 50% of the analyzed bacterial sequences shared between the two sites. Additionally the same species of diatom, Stauirsa construens var. venter, was prolific in both systems as the putative dominant primary producer. Our results indicate that despite differences in scale, geographic location and source waters, the shallow open-water wetland design can select for a rapid convergence of microbial structure and functionality associated with the self-colonizing benthic biomat. This resulting biomat matures over the first growing season with operational parameters such as HRT further exerting a modest selective bias on community succession." @default.
• W2783804392 created "2018-01-26" @default.
• W2783804392 creator A5026476206 @default.
• W2783804392 creator A5028902172 @default.
• W2783804392 creator A5042107204 @default.
• W2783804392 creator A5050620849 @default.
• W2783804392 creator A5065267485 @default.
• W2783804392 date "2018-04-01" @default.
• W2783804392 modified "2023-09-26" @default.
• W2783804392 title "Establishment and convergence of photosynthetic microbial biomats in shallow unit process open-water wetlands" @default.
• W2783804392 cites W1697616527 @default.
• W2783804392 cites W1872162885 @default.
• W2783804392 cites W1952026831 @default.
• W2783804392 cites W1968457580 @default.
• W2783804392 cites W1969765227 @default.
• W2783804392 cites W1997248755 @default.
• W2783804392 cites W1998152031 @default.
• W2783804392 cites W1999489416 @default.
• W2783804392 cites W1999968544 @default.
• W2783804392 cites W2004014148 @default.
• W2783804392 cites W2007415761 @default.
• W2783804392 cites W2014593110 @default.
• W2783804392 cites W2015123736 @default.
• W2783804392 cites W2015599010 @default.
• W2783804392 cites W2034710843 @default.
• W2783804392 cites W2043551521 @default.
• W2783804392 cites W2060680467 @default.
• W2783804392 cites W2065808198 @default.
• W2783804392 cites W2069879975 @default.
• W2783804392 cites W2072355839 @default.
• W2783804392 cites W2074533325 @default.
• W2783804392 cites W2078694731 @default.
• W2783804392 cites W2079663089 @default.
• W2783804392 cites W2080283023 @default.
• W2783804392 cites W2081200061 @default.
• W2783804392 cites W2083082576 @default.
• W2783804392 cites W2087721426 @default.
• W2783804392 cites W2094327174 @default.
• W2783804392 cites W2117457769 @default.
• W2783804392 cites W2118101206 @default.
• W2783804392 cites W2120869297 @default.
• W2783804392 cites W2120946864 @default.
• W2783804392 cites W2130246749 @default.
• W2783804392 cites W2139389924 @default.
• W2783804392 cites W2141462553 @default.
• W2783804392 cites W2149381982 @default.
• W2783804392 cites W2159942570 @default.
• W2783804392 cites W2162620118 @default.
• W2783804392 cites W2167606453 @default.
• W2783804392 cites W2170024099 @default.
• W2783804392 cites W2179438025 @default.
• W2783804392 cites W2314520895 @default.
• W2783804392 cites W2322308848 @default.
• W2783804392 cites W2326687809 @default.
• W2783804392 cites W2339111265 @default.
• W2783804392 cites W2480334389 @default.
• W2783804392 cites W2565339451 @default.
• W2783804392 cites W2614997614 @default.
• W2783804392 cites W2764083712 @default.
• W2783804392 cites W753213623 @default.
• W2783804392 doi "https://doi.org/10.1016/j.watres.2018.01.021" @default.
• W2783804392 hasPubMedId "https://pubmed.ncbi.nlm.nih.gov/29407695" @default.
• W2783804392 hasPublicationYear "2018" @default.
• W2783804392 type Work @default.
• W2783804392 sameAs 2783804392 @default.
• W2783804392 citedByCount "11" @default.
• W2783804392 countsByYear W27838043922019 @default.
• W2783804392 countsByYear W27838043922020 @default.
• W2783804392 countsByYear W27838043922021 @default.
• W2783804392 countsByYear W27838043922022 @default.
• W2783804392 countsByYear W27838043922023 @default.
• W2783804392 crossrefType "journal-article" @default.
• W2783804392 hasAuthorship W2783804392A5026476206 @default.
• W2783804392 hasAuthorship W2783804392A5028902172 @default.
• W2783804392 hasAuthorship W2783804392A5042107204 @default.
• W2783804392 hasAuthorship W2783804392A5050620849 @default.
• W2783804392 hasAuthorship W2783804392A5065267485 @default.
• W2783804392 hasBestOaLocation W27838043921 @default.
• W2783804392 hasConcept C127413603 @default.
• W2783804392 hasConcept C147455438 @default.
• W2783804392 hasConcept C187320778 @default.
• W2783804392 hasConcept C18903297 @default.
• W2783804392 hasConcept C39432304 @default.
• W2783804392 hasConcept C523546767 @default.
• W2783804392 hasConcept C54355233 @default.
• W2783804392 hasConcept C57442070 @default.
• W2783804392 hasConcept C67715294 @default.
• W2783804392 hasConcept C76886044 @default.
• W2783804392 hasConcept C81407943 @default.
• W2783804392 hasConcept C83042747 @default.
• W2783804392 hasConcept C86803240 @default.
• W2783804392 hasConcept C87717796 @default.
• W2783804392 hasConcept C94061648 @default.
• W2783804392 hasConceptScore W2783804392C127413603 @default.
• W2783804392 hasConceptScore W2783804392C147455438 @default.
• W2783804392 hasConceptScore W2783804392C187320778 @default.
• W2783804392 hasConceptScore W2783804392C18903297 @default.
• W2783804392 hasConceptScore W2783804392C39432304 @default.

• next