戻る
「早戻しボタン」を押すと検索画面に戻ります。 [閉じる]

コーパス検索結果 (１語後でソート)

通し番号をクリックするとPubMedの該当ページを表示します
1 protection from potentially harmful types of environmental DNA.
2 y characterised through the metabarcoding of environmental DNA.
3 ciated with increased translocation rates of environmental DNA.
4  from a background of predominantly host and environmental DNA.
5  majority of sequencing capacity taken up by environmental DNA.
6 equencing of ribosomal RNA genes cloned from environmental DNA.
7 nt in site sediment, detected before only in environmental DNA.
8                    Here we report an ancient environmental DNA(6) (eDNA) record describing the rich p
9                           The growing use of environmental DNA adductomics for exposure assessment em
10                      Here, we show that free environmental DNA adsorbs to chitin surfaces under physi
11                                      Ancient environmental DNA (aeDNA) data are close to enabling ins
12                                      Ancient environmental DNA (aeDNA) from lake sediments has yielde
13 tic life that branches with the Fungi, using environmental DNA analyses combined with fluorescent det
14                                              Environmental DNA analysis has emerged as a key componen
15 hat void by using a powerful new technology, environmental DNA analysis, that enabled us to character
16                                    Microbial environmental DNA and RNA (collectively 'eNA') originate
17 ch to identify and quantify diatoms found in environmental DNA and RNA samples.
18 lly heavily fragmented and contaminated with environmental DNA, and where the retrieval of genetic da
19  of the 'pharmabiome' shows the potential of environmental DNA as a powerful forensic tool to assist
20                High-throughput sequencing of environmental DNA barcodes (metabarcoding) offers an alt
21                                              Environmental DNA can be transported by ocean currents a
22                             Recombination of environmental DNA can prevent the accumulation of delete
23                                   Monitoring environmental DNA can track the presence of organisms, f
24 the identification of antibacterially active environmental DNA clones, will take approximately 2 week
25 haracterization of gene clusters captured on environmental DNA clones.
26 y using a metabarcoding approach on airborne environmental DNA collected by a national ambient air qu
27 omic sequencing assay that is robust against environmental DNA contamination introduced during sample
28 ding to high sequencing costs, and prevalent environmental DNA contamination risks.
29 ze microbial communities but is sensitive to environmental DNA contamination, in particular when appl
30   A 16S rRNA gene sequence found on the same environmental DNA cosmid as NasP is most closely related
31                    Here we use sequencing of environmental DNA, culturing of isolates, and analysis o
32       In conclusion, the opposing effects of environmental DNA damage and DNA repair result in elevat
33 nsate for the genome-destabilizing effect of environmental DNA damage and may be expected to result i
34     The epidermis is exposed to a variety of environmental DNA-damaging chemicals, principal among wh
35  of transcription factors found in sequenced environmental DNA-derived biosynthetic gene clusters, in
36 e recovery and heterologous expression of an environmental DNA-derived gene cluster encoding the bios
37 o the silent, cryptic pseudogene-containing, environmental DNA-derived Lzr gene cluster.
38  N-acylphenylalanine antibiotics by NasP, an environmental DNA-derived N-acyl amino acid synthase, is
39       High-throughput amplicon sequencing of environmental DNA (eDNA metabarcoding) has become a rout
40       High-throughput amplicon sequencing of environmental DNA (eDNA metabarcoding) represents a prom
41        Over the past decades the sampling of environmental DNA (eDNA) - encompassing the DNA of all o
42                                              Environmental DNA (eDNA) analysis allows the simultaneou
43                             Increased use of environmental DNA (eDNA) analysis for indirect species d
44 t the rapid application of shotgun long-read environmental DNA (eDNA) analysis for non-invasive biodi
45                                              Environmental DNA (eDNA) analysis has advanced conservat
46                                              Environmental DNA (eDNA) analysis has become a transform
47                                              Environmental DNA (eDNA) analysis is a powerful tool for
48                                Consequently, environmental DNA (eDNA) analysis is enabling ecosystem-
49                                              Environmental DNA (eDNA) analysis is gaining prominence
50                   We conducted comprehensive environmental DNA (eDNA) and visual encounter surveys to
51 tal stability, and accessibility for diverse environmental DNA (eDNA) applications.
52 ve real time polymerase chain reaction-based environmental DNA (eDNA) approach to detect the presence
53                                   The use of environmental DNA (eDNA) as a species detection tool is
54                      To test the accuracy of environmental DNA (eDNA) as an early indicator of specie
55                                              Environmental DNA (eDNA) barcoding has a high potential
56                   Novel detection tools like environmental DNA (eDNA) can be used for monitoring aqua
57  Here, we challenge this notion by analysing environmental DNA (eDNA) captured along with particulate
58                         For aquatic species, environmental DNA (eDNA) concentration has been suggeste
59 d a blinded pilot study to determine if such environmental DNA (eDNA) could be detected in eleven sam
60  generally treated as separate reservoirs of environmental DNA (eDNA) derived from the species reside
61                                  Analysis of environmental DNA (eDNA) enables the detection of specie
62                                   The use of environmental DNA (eDNA) for monitoring aquatic macrofau
63 nsi and Ae. aegypti, we validated the use of environmental DNA (eDNA) for simultaneous vector detecti
64 en hampered by the inability to easily clone environmental DNA (eDNA) fragments large enough to captu
65 technology, non-invasive method of detecting environmental DNA (eDNA) from both triatomine bugs and T
66                      The characterisation of environmental DNA (eDNA) from sediment and seawater usin
67 seasonal variation in mammal diversity using environmental DNA (eDNA) from soil samples collected dur
68         Here we investigated the capacity of environmental DNA (eDNA) from stream water samples to su
69                                 Detection of environmental DNA (eDNA) has become a commonly used surv
70                                              Environmental DNA (eDNA) has been established as a nonin
71                          Analysis of ancient environmental DNA (eDNA) has revolutionized our ability
72                               Degradation of environmental DNA (eDNA) in aquatic habitats can affect
73                                              Environmental DNA (eDNA) in aquatic systems is a complex
74                                   The use of environmental DNA (eDNA) in biodiversity assessments off
75  a pipeline that utilizes the airborne plant environmental DNA (eDNA) in settled dust to estimate geo
76 tion and efficacy of sampling and sequencing environmental DNA (eDNA) in terrestrial environments usi
77                                 The field of environmental DNA (eDNA) is advancing rapidly, yet human
78                                              Environmental DNA (eDNA) is becoming an increasingly imp
79                                              Environmental DNA (eDNA) is increasingly used for biodiv
80                                              Environmental DNA (eDNA) is increasingly used for monito
81                                              Environmental DNA (eDNA) is increasingly used for specie
82                                        While environmental DNA (eDNA) is now being regularly used to
83                                              Environmental DNA (eDNA) is revolutionizing how we inves
84 thod for rapidly identifying organisms where Environmental DNA (eDNA) is used as a template.
85 sus marine life, including identification of environmental DNA (eDNA) left behind by organisms in the
86                                     Decoding environmental DNA (eDNA) left behind by organisms offers
87 ryptophan dimer (TD) biosynthesis by probing environmental DNA (eDNA) libraries for chromopyrrolic ac
88 ly been limited to the screening of existing environmental DNA (eDNA) libraries.
89  these OxyC sequences, a 10,000,000-membered environmental DNA (eDNA) megalibrary was created from a
90 ere we pilot a novel, rapid and non-invasive environmental DNA (eDNA) metabarcoding approach specific
91 ake Bay (USA), we evaluated the potential of environmental DNA (eDNA) metabarcoding for BW monitoring
92                                    Recently, environmental DNA (eDNA) metabarcoding has emerged as a
93                                              Environmental DNA (eDNA) metabarcoding has the potential
94                                              Environmental DNA (eDNA) metabarcoding of marine sedimen
95                                       We use environmental DNA (eDNA) metabarcoding to characterize c
96                                 Here we used environmental DNA (eDNA) metabarcoding to explore the bi
97                                  We combined environmental DNA (eDNA) metabarcoding with biologging t
98 nform management and conservation decisions, environmental DNA (eDNA) methods are used to detect gene
99        The growing sophistication of ancient environmental DNA (eDNA) methods have allowed for the id
100 developed and validated two species-specific environmental DNA (eDNA) protocols and applied them in t
101                                              Environmental DNA (eDNA) quantification and sequencing a
102  microscopy.(11) Instead, here we used novel environmental DNA (eDNA) sampling and qPCR(12-15) to mea
103                                           As environmental DNA (eDNA) studies have grown in popularit
104                                              Environmental DNA (eDNA) surveillance holds great promis
105                                              Environmental DNA (eDNA) surveys are increasingly being
106                                              Environmental DNA (eDNA) surveys show promise as a way t
107 microbiome analysis, diet metabarcoding, and environmental DNA (eDNA) surveys.
108                                  Analysis of environmental DNA (eDNA) to identify macroorganisms and
109                                   The use of environmental DNA (eDNA) to monitor mussel distributions
110 te and invertebrate), and pathogens using 10 environmental DNA (eDNA) water sampling events every two
111                          The interactions of environmental DNA (eDNA) with microplastics (MPs) in aqu
112                                              Environmental DNA (eDNA), as a rapidly expanding researc
113                                              Environmental DNA (eDNA), genetic material shed from org
114 rom species in aquatic ecosystems, including environmental DNA (eDNA), have improved species monitori
115                Rapid expansion in the use of environmental DNA (eDNA), paired with the advancement of
116 alysis (SIA), fatty acid analysis (FAA), and environmental DNA (eDNA), to investigate the trophic eco
117           We report on the development of an environmental DNA (eDNA)-based tool to efficiently detec
118 cessing pools of individual samples or using environmental DNA (eDNA)-the genetic material shed into
119 rtaken using indirect methodologies, such as environmental DNA (eDNA).
120 ologically complex communities or samples of environmental DNA (eDNA).
121 g an opportunity to monitor biodiversity via environmental DNA (eDNA).
122 primary hosts' DNA in environmental samples [environmental DNA (eDNA)], hydrological variables, and w
123 d by marine organisms; an approach known as 'environmental DNA' (eDNA) [1].
124      Because these DNA-based methods (termed environmental DNA, eDNA) confirm species presence by pro
125 tracted directly from environmental samples (environmental DNA, eDNA) provides a means of exploring t
126 etabarcoding (High-Throughput Sequencing) on environmental DNA extracted from both soil samples and b
127 aft metagenome-assembled genomes (MAGs) from environmental DNA extracted from two hot springs within
128 shotgun sequences of multiple organisms from environmental DNA extracts (metagenomic sequences).
129 omes that will further facilitate the use of environmental DNA for studying host specificity in epizo
130          Here, we demonstrate the utility of environmental DNA from archived leaf material to charact
131           We address this challenge by using environmental DNA from leech-ingested bloodmeals to esti
132 equencing projects of individual genomes and environmental DNA has grown exponentially.
133 ectious agents in farmed and wild salmon and environmental DNA highlights a further 4 agents that are
134 ce of known Group 2i Isochrysidales based on environmental DNA in both marine and lacustrine environm
135        Sequence-tag-guided screening of soil environmental DNA libraries can be used to guide the dis
136                                              Environmental DNA libraries contain large reservoirs of
137    Similar homology-based screening of large environmental DNA libraries is likely to permit the dire
138   Using high throughput screening of complex environmental DNA libraries more than 40 novel microbial
139                                              Environmental DNA megalibraries, like the one constructe
140                                  We combined environmental DNA metabarcoding and measurements of loca
141                      We first established an environmental DNA metabarcoding protocol to identify the
142                                              Environmental DNA metabarcoding revealed new prey items
143                                       We use environmental DNA metabarcoding to assess biodiversity i
144                              We used aquatic environmental DNA metabarcoding to sample vertebrate spe
145 croclimate, productivity and biodiversity by environmental DNA metabarcoding(6)) across 46 proglacial
146               We used these initial samples, environmental DNA metabarcoding, and generalized linear
147                 Here we report a large-scale environmental DNA metagenomic study of ancient plant and
148     Whole genome shotgun (WGS) sequencing of environmental DNA (metagenomics) can be used to study th
149                        Here, we use a single environmental DNA multi-site sampling campaign across th
150  achieved by a combination of discovery from environmental DNA of DERAs with improved activity and re
151 beneficial effects of the expanded access to environmental DNA offered by mutators on the adaptive po
152                                        While environmental DNA offers broader insights, species-level
153 ty of techniques collectively referred to as environmental DNA or 'eDNA'.
154 that organisms release into the environment (environmental DNA, or eDNA) has enormous potential for a
155 urally leave behind in water or soil (called environmental DNA, or eDNA) to identify the species pres
156                                              Environmental DNA persisted longer at 5.0 C but accumula
157                                              Environmental DNA protocols can be especially useful for
158 e libraries of small subunit rRNA genes from environmental DNA provided phylogenetic diversity estima
159 ially expanding the application of real-time environmental DNA research from monitoring species distr
160        We tested this protocol on freshwater environmental DNA, revealing a wide diversity of Perkins
161 ka; and (6) phylogenetic analysis of mammoth environmental DNA reveals a previously unsampled mitocho
162 econd GH11 xylanase, EnXyn11A (encoded by an environmental DNA sample), bound to ferulic acid-1,5-ara
163  genes representing minor constituents of an environmental DNA sample.
164 ons, this work designs and validates Passive Environmental DNA Samplers (PEDS).
165                                      Indeed, environmental DNA samples have been shown to encode many
166 ility of small sets of noisy genotypes, from environmental DNA samples or functional genomics data, m
167  Sgx9260b ( gi|44479596 ), were derived from environmental DNA samples originating from the Sargasso
168                                These include environmental DNA samples that have proven difficult to
169 egion from microbial genomes as well as from environmental DNA samples.
170 ation to estimate organismal abundances from environmental DNA sequence data.
171 he second one (Sgx9355e) was derived from an environmental DNA sequence originally isolated from the
172                                              Environmental DNA sequence samples are complex mixtures
173                      The analytical power of environmental DNA sequences for modeling microbial ecosy
174 lt or impossible to detect without examining environmental DNA sequences, indicating that numerous RN
175 maging is also being complemented by in situ environmental-DNA sequencing technologies, allowing the
176                           Modern metagenomic environmental DNA studies are almost completely reliant
177        With indirect survey methods, such as environmental DNA, such error can occur at two stages: s
178              However, obtaining high-quality environmental DNA suitable for downstream sequencing app
179 s at 61 sampling units using both visual and environmental DNA surveys.
180  DNA based biodiversity assessments (such as environmental DNA) that can help with the complex task o
181 s restricted to a single gene amplified from environmental DNA, the 18S rRNA gene (small subunit [SSU
182                                              Environmental DNA transported in river networks offers a
183                             Bacteria take up environmental DNA using dynamic appendages called type I
184                                  Because the environmental DNA was derived from many closely related
185                                              Environmental DNA was extracted from nine SPM samples di
186 owever, as the study was based on the use of environmental DNA, which does not unequivocally confirm
187 n is feasible through nanopore sequencing of environmental DNA, with important implications for futur

 
Page Top