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1                                              E. coli and Salmonella are two of the most common bacter
2                                              E. coli cells expressing FliC(N87K) sensed ascending a c
3                                              E. coli DeltaL YA constitutively co-expressing alpha-L-f
4                                              E. coli RNA polymerase initiates transcription more effi
5                            Shedding of mcr-1 E. coli by small gull flocks followed a lognormal curve
6 detection and from 1 to 4 x 10(4) CFU mL(-1) E. coli quantification.
7  the ejection of a representative set of 122 E. coli proteins we find a greater than 1000-fold variat
8 temporally and clinically diverse set of 907 E. coli isolates, including 722 uropathogenic E. coli (U
9 se pair resolution dissection of more than a E. coli promoters in 12 growth conditions.
10 d the highest antimicrobial activity against E. coli, S. aureus, and S. typhi in in vitro antimicrobi
11 ocapsules had antimicrobial activity against E. coli, which could be extended to develop active packa
12 X) for fishing out specific aptamers against E. coli Shiga toxin subtypes viz., stx1 & stx2 via epito
13 istance capacity of K. michiganensis against E. coli, supporting the idea that nutrient competition i
14 ulsions, and chlorhexidine solutions against E. coli and S. aureus.
15 e fab genes of FA synthesis thereby allowing E. coli to have its cake (acyl chains for phospholipid s
16                       Instead, serine alters E. coli's 1C-metabolism, reduces the provision of nucleo
17 es of tRNA(fMet) from the genome afforded an E. coli strain in which the efficiency of non-canonical
18 tability and its interaction with SecA in an E. coli mutant devoid of CL.
19 ) , oppA3(Ct) ) along with oppBCDF(Ct) in an E. coli mutant lacking the Opp transporter and determine
20 eroaggregative Escherichia coli (EAEC) is an E. coli pathotype associated with diarrhea and growth fa
21                           In this system, an E. coli recording strain is exposed to a microbial sampl
22  low cost commercial microelectrodes with an E. coli specific antibody.
23 (Gfp)-tagged AR plasmid (pRP4-gfp) within an E. coli host (EcoFJ1) in the liquid phase and biofilms i
24 s on downstream genes in EAEC strain 042 and E. coli K-12 strain DH5alpha, which lacks the AggR regul
25 quently contaminated with E. coli (69%), and E. coli levels were the highest during the wet season.
26 dia (blank broth, Staphylococcus aureus, and E. coli).
27  assay was performed on Ab-modified MBs, and E. coli could be quantified in tap water and milk.
28 obacter baumannii, Klebsiella pneumoniae and E. coli.
29                 We show that B. subtilis and E. coli gyrases are proficient DNA-stimulated ATPases an
30 midis, M. luteus, E. hirae, B. subtilis, and E. coli.
31 ere collected and the isolates identified as E. coli (n = 381) were selected.
32 do not) distinguish UTI- from ASB-associated E. coli strains.
33 t exhibited effectiveness against S. aureus, E. coli, and S. typhimurium, with minimum inhibitory con
34                   The Gram-negative bacteria E. coli and P. aeruginosa were particularly sensitive to
35 essed by tracking of particles and bacteria (E. coli and E. cloacae) with developmental age and expos
36 o suggesting a recalcitrant mismatch between E. coli physiology and growth on citrate.
37 truct an eCRISPR based redox conduit in both E. coli and Salmonella enterica.
38  applied the Stabilized Peptide Evolution by E. coli Display technique to develop disrupters of the t
39 des protection against systemic infection by E. coli.
40 at the discrimination between RNA ligands by E. coli ProQ and Hfq depends both on positive determinan
41            DHMA that is generated in vivo by E. coli is expected to be a racemic mixture of the (R) a
42 el constrained by a large set of single-cell E. coli flagellar synthesis data from different strains
43  6.8 mum, three bacteria strains (B. cereus, E. coli, and S. enterica) and a yeast cell (S. cerevisia
44  We also found that 12.8% of broiler chicken E. coli isolates and 7.61% of layer chicken isolates car
45   On the other hand, 51.09% of layer chicken E. coli isolates were MDR, with 3, 4 or 5 ARGs detected
46  the antibody against a panel of 86 clinical E. coli ST131 O25:H4 isolates revealed 4 binding phenoty
47   Results were interpreted according to CLSI E. coli breakpoints, with 49.0 to 85.8% considered susce
48  unsaturation of lipids in Escherichia coli (E. coli) and Acinetobacter baumannii (A. baumannii).
49 ctivation of Gram-negative Escherichia coli (E. coli) and Gram-positive Enterococcus durans (E. duran
50 bition zone method against Escherichia coli (E. coli) and Staphylococcus aureus (S. aureus), which de
51 ment platform comprised of Escherichia coli (E. coli) and transgenic zebrafish embryos, we are able t
52       Antibiotic-resistant Escherichia coli (E. coli) are common in retail poultry products.
53 , sensitive and label-free Escherichia coli (E. coli) detection utilizing interferometric reflectance
54 ase in dairy industry, and Escherichia coli (E. coli) is one of the major causative pathogens.
55 ed 711 proteoforms from an Escherichia coli (E. coli) proteome consuming only nanograms of proteins.
56                       Most Escherichia coli (E. coli) strains do not cause disease, naturally living
57                            Escherichia coli (E. coli) was engineered to catalyse the cleavage of 2'-F
58 teps of rRNA processing in Escherichia coli (E. coli) were described several decades ago, the enzymes
59 n (DIP) Human, Drosophila, Escherichia coli (E. coli), and Caenorhabditis elegans (C. elegan) dataset
60 dark inactivate planktonic Escherichia coli (E. coli).
61 %), with lower reductions for the coliforms (E. coli 57% and Klebsiella 49%).
62                           Although commensal E. coli expressing Pic degraded MUC2, it did not show im
63 ay impact plasmid transfer between commensal E. coli and S. sonnei.
64  strategy may also be relevant for commensal E. coli diminishing the S. Typhimurium infection.
65         Twenty-five percent of the commensal E. coli strains harbored mcr-1 genes.
66  control protease naturally absent in common E. coli expression strains, drastically reshapes the mut
67 en the two constructs suggest a more compact E. coli MscL at the membrane inner-leaflet, as a consequ
68 e apparent for each manufacturer for control E. coli strains.
69  bolA potentiated carbapenem efficacy in CRE E. coli, whereas inhibition of the genes flhC and ygaC c
70 ut was nearly eliminated in a ClpB-deficient E. coli strain, which demonstrates a significant selecti
71 howed that FA synthesis primarily determines E. coli cell size.
72 ence of mcr-1 gene among genetically diverse E. coli populations from broiler chickens in Bangladesh
73 PCR profiles and WGS analysis showed diverse E. coli population carrying multiple antimicrobial resis
74         Administration of RvD5n-3 DPA during E. coli-initiated inflammation regulated neutrophil traf
75 anic carbon source, pointing to S. elongatus-E. coli K-12 as the most active community.
76           Expression of 20 CCM genes enabled E. coli to grow by fixing CO(2) from ambient air into bi
77 ich are then decoded by gelatin-encapsulated E. coli.
78                               By engineering E. coli cells carrying individual and compensatory mutat
79 on with exogenous hydrogen peroxide enhanced E. coli growth through AppBCX-mediated respiration in a
80                            Enteroaggregative E. coli (EAEC) are a major cause of diarrhoea worldwide.
81       Here we report that histone H2A enters E. coli and S. aureus through membrane pores formed by t
82 i-Mg-3wt% Zn) that can selectively eradicate E. coli while not harming the survival rate, development
83 portance of culture media for detecting ESBL E. coli.
84 roducibility and detection of potential ESBL E. coli from poultry cecal (n = 30) and water (n = 30) s
85          From ceca and water, potential ESBL E. coli isolates were only confirmed from MacConkey agar
86 ely detecting and quantifying potential ESBL E. coli MacConkey agar from eight manufacturers, represe
87 d virulence genes were added to the existing E. coli VirulenceFinder database.
88                                  By exposing E. coli that do not perform lysis to the DNase colicin,
89 nes encoding aggregative adherence fimbriae, E. coli common pilus, flagellin and EAEC heat-stable ent
90  suppressed growth and colonisation by focal E. coli but also prevented it from evolving antibiotic r
91 mples from all three human donors, our focal E. coli strain only evolved antibiotic resistance in the
92 city rates of 100% for all classes, both for E. coli and for K. pneumoniae.
93  anchors and Z-ring regulators described for E. coli.
94 nsing, we have developed an immunosensor for E. coli detection by modifying low cost commercial micro
95              The ATR system is important for E. coli survival in the mouse intestine and for producti
96 CA072 for B. cenocepacia J2315 and pESBL for E. coli O104:H4.
97             Curli expression is required for E. coli to exacerbate alphaSyn-induced behavioral defici
98                                         Four E. coli strains (NC11, ATCC 25922, CM-13457, and CM-1045
99  of L-Asn by the type II L-asparaginase from E. coli (EcAII), but that work was limited to just one e
100                 Ribosome profiling data from E. coli reveals that the presence of slowly ejecting seq
101 d oxidation-induced abasic sites in DNA from E. coli treated with a sublethal dose of hydrogen peroxi
102 2-oxobutanoate hydroxymethyltransferase from E. coli (KPHMT) and variants thereof.
103 died how frameshift-inducing stem-loops from E. coli dnaX mRNA and the gag-pol transcript of Human Im
104 e report the crystal structure of MlaFB from E. coli, the cytoplasmic portion of the larger MlaFEDB A
105 ous bacteria could obtain these vectors from E. coli through several mechanisms of horizontal gene tr
106            We demonstrate that the YbeY from E. coli and S. meliloti can reciprocally complement the
107 city depends on the presence of a functional E. coli trxA allele and T7 RNA polymerase-driven express
108                 Here, Q8 deficiency impaired E. coli growth at low osmotic pressure and rendered grow
109                                           In E. coli, experimental studies performed over the past si
110                                           In E. coli, ppGpp inhibits purine nucleotide synthesis by t
111                                           In E. coli, this is mediated by the proteins DsbC and DsbD.
112 and membrane lipid cardiolipin accumulate in E. coli cells cultivated at high osmotic pressure.
113 lycan fragments (tri-diaminopimelic acid) in E. coli and in C. trachomatis These findings suggest tha
114 dentified mode of tolerance to ampicillin in E. coli.
115 ulations and a synthetic biology approach in E. coli, we find that the TF gene and its target genes h
116 oglycoside bacteriostasis and bactericide in E. coli.
117 duction of C. difficile vaccine candidate in E. coli by using restricted DO growth.
118 tage of transcripts that are Np(4)-capped in E. coli, clear evidence for Np(4) cap acquisition by Np(
119 trated that 2,7-anhydro-Neu5Ac catabolism in E. coli depended on YjhC and on the predicted sialic aci
120 rphogen-induced mutual inhibition circuit in E. coli populations and show that mutual inhibition alon
121 evelopment of high-accumulating compounds in E. coli, and a general blueprint for the conversion of G
122 major mechanism of translational coupling in E. coli.
123 sm by which spacer orientation is defined in E. coli.
124 ry of single non-essential gene deletions in E. coli str.
125 olog from Hemophilus influenzae expressed in E. coli cells also reversibly binds a [2Fe-2S] cluster t
126                However, when co-expressed in E. coli LiGPPS.LSU and LiGPPS.SSU1 formed an active hete
127 nents followed by heterologous expression in E. coli and spectroscopic analysis of the purified produ
128 proves multiplex editing by 5- to 10-fold in E. coli, while PapRecT enables efficient recombineering
129 achycardia, and compromised lung function in E. coli-exposed mice.
130 ely removes the [2Fe-2S] cluster from Fur in E. coli cells, suggesting that Fur senses the intracellu
131  yejM was discovered as an essential gene in E. coli and S. typhimurium that plays a critical role in
132  expression of citrate fermentation genes in E. coli under anaerobic conditions.
133 r ppGpp to inosine-guanosine kinase (Gsk) in E. coli modulates the levels of the key metabolite phosp
134 As also conferred the ability to bind Hfq in E. coli cells, as measured using a three-hybrid assay.
135 first 5' to 3' RNA exonuclease identified in E. coli.
136      In contrast, the specific insertions in E. coli and mycobacterial gyrase subunits appear to prev
137 compound that accumulates to a high level in E. coli, is effective against Gram-negative clinical iso
138   Pol IV is expressed at increased levels in E. coli cells exposed to exogenous DNA damaging agents,
139 larger model of central carbon metabolism in E. coli, and compared each framework's ability to recapi
140 introduction of the acp3U-47 modification in E. coli tRNAs is promoted by the presence of the m7G-46
141  the knob-into-hole and WT IgG4 molecules in E. coli.
142 get RNAs differing by a single nucleotide in E. coli and resolve single epitranscriptomic marks in vi
143 aldoxime dehydratase (OxdB) overexpressed in E. coli.
144 tood, because MK and DMK are also present in E. coli Here, we established that UQ(9) is the major qui
145 laccase from T. thermophilus was produced in E. coli, and the effect of Cu(2+) on its electroactivity
146 ns were expressed as recombinant proteins in E. coli.
147 ptive response and repair of S (p)-Me-PTE in E. coli, however, was essential for the generation of th
148 ntributes to mutagenesis of S (p)-Me-PTEs in E. coli.
149 ndent manner has been discovered recently in E. coli Its physiological relevance is not yet understoo
150 tems are known to control acid resistance in E. coli, enabling the bacteria to survive under acidic c
151  does not confer antimicrobial resistance in E. coli, highlighting the importance of verifying protei
152 udy defines an antifolate stress response in E. coli and links its associated metabolites to a major
153 aCl by KGlu, the primary cytoplasmic salt in E. coli, results in a decrease of the diffusion coeffici
154 ntally for many different nutrient shifts in E. coli, as well as for other respiro-fermentative micro
155 hosphate buffered saline (PBS) and spiked in E. coli cell lysate.
156 initial adaptive response to N starvation in E. coli These results serve as a paradigm to demonstrate
157 f ribosome recycling on protein synthesis in E. coli.
158 the effectiveness of antibiotic treatment in E. coli-induced myositis and a clinically relevant S. au
159 icient expression of the designed vaccine in E. coli expression system.
160  LC, by recombinantly expressing variants in E. coli.
161 pC as an alternative receptor when infecting E. coli.
162 000+ intact proteoforms from 5 mug of intact E. coli cell lysate in 10 online-collected fractions.
163 nd genotypes observed among the investigated E. coli isolates.
164 lian cell-expressed receptor compared to its E. coli-expressed counterpart, due to contributions from
165                 In total, 48 of the 55 known E. coli ribosomal proteins are identified as 84 unique p
166               Mice were inoculated with live E. coli intratracheally (i.t.) with or without adenosine
167 ively characterize gene repression in living E. coli by a collection of individual TALED loops with s
168 ggested that mutations removing the CTT make E. coli less susceptible to sodium azide at subinhibitor
169 ve a promising in vitro activity against MDR-E. coli.
170 eria with costained nucleoids and membranes (E. coli) on surfaces with nanopillars.
171 trated that adenosine or ATPgammaS mitigates E. coli-induced ALI in mice and may be useful as an adju
172 Conversely, in a vaginal colonization model, E. coli are detected inside vaginal cells and the urinar
173  dissociation of a natural protein nanocage, E. coli bacterioferritin (Bfr), using synchrotron radiat
174 gram-positive (S. aureus) and gram-negative (E. coli) bacteria on solid and porous surfaces.
175 d ground beef can also contain nonadulterant E. coli strains, regular PCR cannot confirm whether the
176 s are carried by adulterant or nonadulterant E. coli serogroups.
177 consume 3.6-4.9 log(10) most probable number E. coli/day.
178  4 mug/ml cefotaxime, where 45% and 16.6% of E. coli isolates phenotypically expressed ESBL productio
179 re, we systematically explore the ability of E. coli to harness underground metabolism to compensate
180                                The amount of E. coli ingested by children and the predominant pathway
181                               The binding of E. coli to the M13 phage on the cytosensor surface incre
182        Hence, inflammation-induced blooms of E. coli LF82 are significantly blunted when amino acids-
183 oteins that bind to the secondary channel of E. coli RNA polymerase (RNAP), such as GreA, GreB or Dks
184 id not contain any major chemoattractants of E. coli, in contradiction to some previous reports, whic
185 identification and quantitative detection of E. coli are of great importance for bovine mastitis cont
186 throughput approach for the determination of E. coli endotoxin after only 60 s, with a limit of detec
187      In DH5alpha, aar affected expression of E. coli genes in some cases via H-NS and in some cases i
188  has also been shown to affect expression of E. coli housekeeping genes, including H-NS, a global reg
189 ecently characterised a low-activity form of E. coli transketolase, TK(low), which also binds the cof
190 tion was restored during prolonged growth of E. coli at high osmotic pressure.
191 ll wall, and eventually growth inhibition of E. coli K-12.
192                            Investigations of E. coli cell size determinants showed that FA synthesis
193                     The DBeQ-induced loss of E. coli proliferation was exacerbated by heat shock but
194 d translocation across the inner membrane of E. coli.
195 mase) DeltadapF (epimerase) double mutant of E. coli rescues the d-glutamate auxotrophic defect.
196 e re-examined the experimental parameters of E. coli in-cell NMR and found that the detectability and
197 ereas nonlytic toxins leave large patches of E. coli alive.
198 ds, food, and objects as primary pathways of E. coli ingestion and emphasize the value of intervening
199  by children and the predominant pathways of E. coli ingestion were unchanged by the water, sanitatio
200 re we show that an assay in the periplasm of E. coli linking aggregation directly to antibiotic resis
201                           In the presence of E. coli, the nematode's neurons signal via TGFbeta-insul
202                            The prevalence of E. coli was 30% (n = 48) distributed in 8 serogroups (40
203 en-starved bacteria as a biological probe of E. coli cell function during nitrogen starvation, we dem
204 filtrating CD45(+) cells in the prostates of E. coli- or phosphate-buffered saline-treated mice.
205            Results indicated the recovery of E. coli 13457 from four MacConkey agar manufacturers was
206 ocytosis, thereby facilitating resolution of E. coli-evoked lung injury.
207 foci have a role in the adaptive response of E. coli to long-term nitrogen starvation.
208                      The global responses of E. coli cells to m-Tyr were assessed by RNA-seq, and >50
209 of m-Tyr toxicity, we utilitized a strain of E. coli that expresses a QC-defective PheRS.
210 le microbial community with three strains of E. coli that cyclically interact through (i) the inhibit
211 ity of the proteomes of sequenced strains of E. coli.
212 has been described in a number of strains of E. coli.
213             Docking of ATP on a structure of E. coli DnaA, modeled upon the crystallographic structur
214   Here we present nine cryo-EM structures of E. coli ATP synthase to 3.1-3.4 angstrom resolution, in
215        Here, we report cryo-EM structures of E. coli sigma(28) -dependent transcribing complexes on a
216  mice demonstrated baseline translocation of E. coli into the liver and spleen and were more suscepti
217 -a nutrient that supports the growth of only E. coli-to bi-colonized gnotobiotic mice abolished the c
218  as compared to control in both germ-free or E. coli gut microbiota states was used to quantitate pat
219                                    Two other E. coli proteins that contain SecA-like MBDs, YecA and Y
220       K. michiganensis generally outcompeted E. coli in vitro, but in vivo administration of galactit
221 ins) and outside (extraintestinal pathogenic E. coli, or ExPEC).
222 he ETT2 locus in strains of human pathogenic E. coli, we carried out genomic sequencing of 162 isolat
223             When expressed in non-pathogenic E. coli, this pathway confers immunity against bacteriop
224                   The majority of pathogenic E. coli contain elements of a genetic locus encoding ETT
225 s essential for the attachment of pathogenic E. coli to the intestinal host cell.
226 ccumulation and capture of motile pathogens (E. coli) within the microtrap structure, while the inter
227 ls, showed increased killing of phagocytosed E. coli and M. smegmatis Polyphosphate inhibited phagoso
228 man intestinal organoids to genotoxic pks(+) E. coli by repeated luminal injection over five months.
229 ay facilitate transmission of mcr-1 positive E. coli to humans and livestock through fecal contaminat
230 ls are readily colonized with mcr-1 positive E. coli, their shedding patterns, transmission among con
231 imipenem activity against an NDM-1-producing E. coli clinical strain.
232           The carriers had 96 ESBL-producing E. coli isolates, 51% exhibiting a molecular pathotype:
233   Half of all travel-acquired ESBL-producing E. coli strains qualified molecularly as pathogens.
234 teep gradients with wide temperature ranges, E. coli aggregated at intermediate temperatures, with ma
235 re gradients with narrow temperature ranges, E. coli tended to aggregate near a sidewall of the gradi
236 at propionylation of Lys280 on AdeT1 renders E. coli cells more resistant to erythromycin.
237 udies, the M. tuberculosis Tam also replaced E. coli BioC both in vivo and in vitro and complemented
238 ategy to help reduce ciprofloxacin-resistant E. coli in cattle within the United States.
239  fecal prevalence of ciprofloxacin-resistant E. coli.
240 le fecal shedding of ciprofloxacin-resistant E. coli.
241 alence of 3G-C and fluoroquinolone-resistant E. coli was 4% and 10%, respectively.
242 iated with the spread of multidrug-resistant E. coli phenotypes responsible for device- and procedure
243 the three protoxins are acylated in the same E. coli cell background by each of the CyaC, HlyC, and R
244 onize new niches, interrogation of sequenced E. coli O157:H7 genomes showed a high level of CycA cons
245 ce of any redox indicators, allowed a single E. coli cell detection and from 1 to 4 x 10(4) CFU mL(-1
246 ne control strains and (ii) 288 human-source E. coli strains classified by PCR as ExPEC and non-ExPEC
247                               In this study, E. coli BL21 was engineered to express the zntR, ribB, a
248 ive treatment of ceftriaxone non-susceptible E. coli and Klebsiella.
249 ng a programmable dCas9 represses a targeted E. coli gene in the mammalian gut.
250 ed T3SS but in addition a second T3SS termed E. coli T3SS 2 (ETT2) has been described in a number of
251 activity against 2,7-anhydro-Neu5Ac and that E. coli could catabolize 2,7-anhydro-Neu5Ac.
252                            We also show that E. coli IGPS, at an even lower rate, can produce IGP fro
253                                          The E. coli K15 serotype has been identified as both an ente
254 stem can be used to detect and associate the E. coli serogroup-specific gene with major virulence gen
255 in phosphatase, significantly attenuated the E. coli-induced compromise of lung function.
256 dge, this is the first report concerning the E. coli secondary bacterial infections following the FMD
257 ete GEM that has been developed to date: the E. coli GEM.
258 nerates a multitude of sequence ions for the E. coli ammonia channel (AmtB), provides improved locali
259                   Our findings implicate the E. coli host 3'-5' exonucleases DnaQ and ExoT in spacer
260 sent in eukaryotic enzymes but absent in the E. coli homolog.
261 Fe-2S] cluster in Fur protein is ~31% in the E. coli iscA/sufA mutant cells and is decreased to ~4% i
262                  Multidrug resistance in the E. coli isolates collected (n = 236) was common, with th
263 BPs, while only one, OppA, is encoded in the E. coli opp operon.
264            We present cryo-EM studies of the E. coli enzyme that show how asymmetric hexameric rings
265 ore, the detectability and resolution of the E. coli in-cell NMR spectra correlated with the soluble
266   Our ~3.5 angstrom cryo-EM structure of the E. coli MCE protein LetB reveals an ~0.6 megadalton comp
267 he geometric and electronic structure of the E. coli periplasmic molybdenum-dependent methionine sulf
268 d demonstrates remarkable versatility of the E. coli translational machinery for initiation with ncAA
269 d to be more stable, more antigenic than the E. coli protein, and form higher-order oligomers.
270          Both new approaches showed that the E. coli ammonium transporter AmtB prefers phosphatidylgl
271                        Here we show that the E. coli Bam complex catalyzes the efficient assembly of
272 ctor pSF-OXB15-p450camfusion showed that the E. coli cells died after five days but a variety of bact
273 ted RNA and is structurally unrelated to the E. coli McrB DNA-binding domain.
274 ing of the motor was almost identical to the E. coli W3110 strain, which is a derivative of K-12 and
275                                   Within the E. coli population, distinct invasive UPEC lineages emer
276 e marrow-derived dendritic cells compared to E. coli LPS.
277 ical signs of lung injury in mice exposed to E. coli.
278 TA3, and IRF4) at 18 hours after exposure to E. coli were identified to be differentially regulated b
279 ther goat's mammary gland immune response to E. coli lipopolysaccharide (LPS) could be conditioned by
280    ACSL1 levels were elevated in response to E. coli treatment, and macrophage-expressed ACSL1 was in
281 iption-coupled repair in a manner similar to E. coli.
282  were replaced by alanine is highly toxic to E. coli cells.
283 e TSP that confers phage specificity towards E. coli O157:H7.
284 e overflow were accurately simulated for two E. coli strains.
285 ved antibacterial activity against wild-type E. coli.
286         Here, we decode a previously unknown E. coli metabolic pathway that produces a family of hybr
287 stingly, we find that in B. subtilis, unlike E. coli where multiple enzymes have a biochemical activi
288        When assigning sites of unsaturation, E. coli was found to contain all unsaturation elements a
289 ormed by MICP starting from single ureolytic E. coli MJK2 cells in 25 um diameter drops.
290 . coli isolates, including 722 uropathogenic E. coli (UPEC) isolates.
291 vious studies established that uropathogenic E. coli - the primary cause of urinary tract infections
292 inflammatory response against uropathogenic, E. coli-induced, acute pyelonephritis.
293                               Finally, using E. coli mutants and complementation growth assays, we de
294 mpound that accumulates intracellularly when E. coli is exposed to high concentrations of extracellul
295 iDe to in vivo metatranscriptomic data where E. coli was present at high abundances, and found that o
296 owledge, this level of sensitivity for whole E. coli detection is unprecedented in label-free biosens
297                  Acidosis is associated with E. coli induced pyelonephritis but whether bacterial cel
298 er samples were frequently contaminated with E. coli (69%), and E. coli levels were the highest durin
299 noculating petroleum-polluted sediments with E. coli carrying the vector pSF-OXB15-p450camfusion show
300 A mutant cells and is decreased to ~4% in WT E. coli cells.

 
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