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1 bacterium bovis, Mycobacterium ulcerans, and Mycobacterium marinum.
2 ram-positive bacterium Bacillus subtilis, or Mycobacterium marinum.
3 ents of lipooligosaccharide IV (LOS-IV) from Mycobacterium marinum.
4 r for the analysis of culture filtrates from Mycobacterium marinum.
5 m tuberculosis, Mycobacterium bovis BCG, and Mycobacterium marinum.
6 complexity, the secreted protein fraction of Mycobacterium marinum.
7 istinct patterns of innate susceptibility to Mycobacterium marinum.
8 nd mel2, that affect macrophage infection by Mycobacterium marinum.
9 urally susceptible to tuberculosis caused by Mycobacterium marinum.
10 acterium tuberculosis, and 85.9% homology to Mycobacterium marinum.
11 urA-katG loci in the nontuberculous pathogen Mycobacterium marinum.
12 alyse the initial response of neutrophils to Mycobacterium marinum, a close genetic relative of M. tu
13 generated a mutation in the erp homologue of Mycobacterium marinum, a close genetic relative of M. tu
14 urally susceptible to tuberculosis caused by Mycobacterium marinum, a close genetic relative of the c
15                                              Mycobacterium marinum, a close relative of the human pat
16 ographic structure determination of NAT from Mycobacterium marinum, a close relative of the pathogeni
17                        Finally, we show that Mycobacterium marinum, a model organism for M. tuberculo
18 r and its consequences during infection with Mycobacterium marinum, a natural fish pathogen.
19                                              Mycobacterium marinum, a natural pathogen of fish and fr
20                            Here we show that Mycobacterium marinum, a natural pathogen of fish and fr
21 Ts required for lytic activity, we leveraged Mycobacterium marinum, a nontubercular pathogen and a mo
22 ulosis, the cause of human tuberculosis, and Mycobacterium marinum, a nontubercular pathogen with a b
23 X-1 substrates in secretion and virulence in Mycobacterium marinum, a pathogen of humans and animals.
24                                              Mycobacterium marinum, a relatively rapid-growing fish a
25 We infected murine RAW264.7 macrophages with Mycobacterium marinum, a surrogate model organism for M.
26                                              Mycobacterium marinum, a well-recognized cutaneous patho
27                               Challenge with Mycobacterium marinum activated Th1-mediated immune prot
28 of the ESX-1 substrate pair EsxB_1/EsxA_1 in Mycobacterium marinum Although this substrate pair was h
29                                           In Mycobacterium marinum, an established model for ESX-1 se
30         Here we inactivated the oxyR gene in Mycobacterium marinum, an organism used to model M. tube
31 poson mutants of the closely related species Mycobacterium marinum and Mycobacterium avium harboring
32  collaborated to characterize an outbreak of Mycobacterium marinum and other nontuberculous mycobacte
33 ycolyl-diarabino-glycerol, was purified from Mycobacterium marinum and subsequently identified as a 5
34 sterase) in the opportunistic human pathogen Mycobacterium marinum and the characterization of this m
35 or studying mycobacterial pathogenesis using Mycobacterium marinum and the goldfish, Carassius auratu
36 andii, is closely related to M. ulcerans and Mycobacterium marinum, and as further evidence is gather
37                   Mycobacterium ulcerans and Mycobacterium marinum are closely related pathogens whic
38               Mycobacterium tuberculosis and Mycobacterium marinum are thought to exert virulence, in
39 re challenged with Salmonella typhimurium or Mycobacterium marinum at earlier stages of development,
40 teins and a complex protein mixture from the Mycobacterium marinum bacterial secretome.
41 is essential for ESX-5-mediated secretion in Mycobacterium marinum, but for which the role in secreti
42 duction was isolated from the photochromogen Mycobacterium marinum by heterologous complementation of
43  network that results in iniBAC induction in Mycobacterium marinum By transposon mutagenesis, we iden
44 In zebrafish, we find that susceptibility to Mycobacterium marinum can result from either inadequate
45                                              Mycobacterium marinum causes long-term subclinical granu
46                                              Mycobacterium marinum causes tuberculosis-like disease i
47                        We describe a case of Mycobacterium marinum demonstrating robust cord formatio
48                  We employed a collection of Mycobacterium marinum ESX-1 transposon mutants in a macr
49                                              Mycobacterium marinum, found commonly in salt water and
50                                              Mycobacterium marinum grows at an optimal temperature of
51                                              Mycobacterium marinum has recently been used as a model
52 rafish with natural fish pathogens including Mycobacterium marinum has significantly advanced our und
53 eria, such as Mycobacterium tuberculosis and Mycobacterium marinum, have up to five of these systems,
54 screen for determinants of susceptibility to Mycobacterium marinum identified a hypersusceptible muta
55                         However, analysis of Mycobacterium marinum in zebrafish has shown that the ea
56  Mtmr4-specific siRNA were more resistant to Mycobacterium marinum-induced phagosome arrest, associat
57                                              Mycobacterium marinum-infected zebrafish are used to stu
58                              Here, we deploy Mycobacterium marinum-infected zebrafish larvae for in v
59                     We monitored transparent Mycobacterium marinum-infected zebrafish live to conduct
60                We report a case of cutaneous Mycobacterium marinum infection in a renal transplant re
61  we examine the pathogenesis associated with Mycobacterium marinum infection in the fly.
62 es host immune responses in vivo, we studied Mycobacterium marinum infection in two different hosts:
63                   Here, we use the zebrafish-Mycobacterium marinum infection model as a whole-animal
64 f the tuberculous granuloma in the zebrafish-Mycobacterium marinum infection model, which is characte
65 restricting mycobacteria growth, we examined Mycobacterium marinum infection of Drosophila S2 cells.
66 ped a chemical approach to track PDIM during Mycobacterium marinum infection of zebrafish.
67  et al., (2016) using the zebrafish model of Mycobacterium marinum infection provides new insights in
68 wed TriSLas to protect zebrafish larvae from Mycobacterium marinum infection, suggesting a vulnerabil
69 rison of intravenous and hindbrain routes of Mycobacterium marinum infection, which are indistinguish
70 blished zebrafish models of inflammation and Mycobacterium marinum infection.
71 erculosis, and its close pathogenic relative Mycobacterium marinum, initially infect, evade, and expl
72                                              Mycobacterium marinum is a pathogenic mycobacterial spec
73                                              Mycobacterium marinum is a promiscuous pathogen infectin
74                                              Mycobacterium marinum is a waterborne pathogen responsib
75                                              Mycobacterium marinum is an established model for discov
76                                              Mycobacterium marinum is closely related to Mycobacteriu
77 ation to conclude that the MMAR_0039 gene in Mycobacterium marinum is required to promote Esx-1 expor
78                                              Mycobacterium marinum, like Mycobacterium tuberculosis,
79                              We have found a Mycobacterium marinum locus of two genes that is require
80                    We recently constructed a Mycobacterium marinum mel2 locus mutant, which is known
81  We recently identified inhibitors targeting Mycobacterium marinum MelF (Rv1936) by in silico analysi
82  antimicrobial activity was assessed against Mycobacterium marinum (Mm) (a model for Mtb), Pseudomona
83 tion using the esxA/esxB knockout strains of Mycobacterium marinum (Mm) and Mtb.
84 to mycobacteria in vivo, we used a zebrafish Mycobacterium marinum (Mm) infection tuberculosis model.
85 uberculosis, and the second vector tested in Mycobacterium marinum (Mm).
86      In this study, we utilize the zebrafish-Mycobacterium marinum model to show mycobacteria drive h
87                    Here, using the zebrafish-Mycobacterium marinum model, we found that mycobacterial
88                          Using the zebrafish-Mycobacterium marinum model, we identify the basis of gr
89                 Within 1 day of injection of Mycobacterium marinum, MsNramp expression was highly ind
90                                              Mycobacterium marinum mutants with transposon insertions
91                  In Drosophila infected with Mycobacterium marinum, mycobacterium-induced STAT activi
92  compartments disrupted after infection with Mycobacterium marinum or after sterile damage caused by
93                   In zebrafish infected with Mycobacterium marinum or Mycobacterium tuberculosis, exc
94                         We characterized the Mycobacterium marinum phagosome by using a variety of en
95 erculosis, and its close pathogenic relative Mycobacterium marinum, preferentially recruit and infect
96 crimination of wild type and DeltaRD1 mutant Mycobacterium marinum strains in a zebrafish embryo mode
97    We conducted a genetic screen to identify Mycobacterium marinum strains which failed to lyse amoeb
98        Drosophila melanogaster infected with Mycobacterium marinum suffer metabolic wasting similar t
99     However, work in zebrafish infected with Mycobacterium marinum suggests that granulomas contribut
100   We analyzed the gene expression profile of Mycobacterium marinum, the cause of fish and amphibian t
101  several genes preferentially expressed when Mycobacterium marinum, the cause of fish and amphibian t
102 cobacterium liflandii, and the fish pathogen Mycobacterium marinum; the structural diversity in the m
103 cobacterium bovis Bacille Calmette-Guerin or Mycobacterium marinum to thiacetazone, a second line ant
104             We show here that superinfecting Mycobacterium marinum traffic rapidly into preexisting g
105 ecent studies have shown that superinfecting Mycobacterium marinum traffic rapidly to established fis
106                                  A screen of Mycobacterium marinum transposon mutant library led to i
107 e secretion of PE_PGRS proteins by screening Mycobacterium marinum transposon mutants for secretion d
108    Finally, we show that flies infected with Mycobacterium marinum undergo a process like wasting: Th
109       A carboxylic acid reductase (CAR) from Mycobacterium marinum was found to convert a wide range
110  a transposon insertion mutant (cpsA::Tn) of Mycobacterium marinum was studied.
111 we determined for the intracellular pathogen Mycobacterium marinum whether it uses conserved strategi
112 regulating the levels of ESX-1 substrates in Mycobacterium marinum WhiB6 is a transcription factor th
113  gravis developed a cutaneous infection with Mycobacterium marinum, which apparently resolved followi
114                                        Using Mycobacterium marinum-zebrafish and the surrogate MsmRv3
115                                    Using the Mycobacterium marinum-zebrafish model, Cronan et al. (20

 
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