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1 racted the IgA1 protease preprotein from the bacterial outer membrane.
2 on of lipid II perturbs the structure of the bacterial outer membrane.
3 of targeting of beta-barrel proteins to the bacterial outer membrane.
4 ilitating their own translocation across the bacterial outer membrane.
5 t overcome noxious compounds that damage the bacterial outer membrane.
6 oxygen production in the surroundings of the bacterial outer membrane.
7 ability of these types of drugs to cross the bacterial outer membrane.
8 allows diffusion of small solutes across the bacterial outer membrane.
9 pecific 5',3'-nucleotidases localized to the bacterial outer membrane.
10 s primarily through pores or channels in the bacterial outer membrane.
11 dD, a putative lipoprotein, localized to the bacterial outer membrane.
12 rt of small hydrophobic molecules across the bacterial outer membrane.
13 lity to drive their own secretion across the bacterial outer membrane.
14 the mechanism of colicin import through the bacterial outer membrane.
15 PS in the outer leaflet of the Gram-negative bacterial outer membrane.
16 lebs indicate that the blebs derive from the bacterial outer membrane.
17 1969, I became interested in the function of bacterial outer membranes, a line of work that led to th
21 Rd/HapS243A, resulted in loss of Hap in the bacterial outer membrane and a decrease in hap transcrip
22 36 protein was exposed on the surface of the bacterial outer membrane and bound to the host extracell
23 ed early (15 min and 1 hr) disruption of the bacterial outer membrane and cell wall, as demonstrated
24 des possessing both enhanced mobility in the bacterial outer membrane and spatial structure facilitat
25 tein interacts with the inner leaflet of the bacterial outer membrane and that the two monomers provi
26 ormation of a direct interaction between the bacterial outer membrane and the plasma membrane of ME18
27 rides (LOS) are the main lipid components of bacterial outer membranes and are essential for cell via
28 es with lipopolysaccharides of Gram-negative bacterial outer membranes and find that lipopolysacchari
29 e micelles associate non-covalently with the bacterial outer-membrane and that this interaction incre
30 s such as LPS, a glycolipid component of the bacterial outer membrane, and formylated peptides (fMLP)
31 that TspO normally forms a dimer within the bacterial outer membrane, and the dimer form of TspO may
32 biochemical, and antigenic properties of the bacterial outer membrane are profoundly influenced by th
33 al translocator domain that inserts into the bacterial outer membrane as a beta-barrel structure and
34 was shown to retain its structure within the bacterial outer membrane as assayed by its binding prope
36 ound that the asymmetry of the Gram-negative bacterial outer membrane as well as the TM residues of a
38 y help us to understand important aspects of bacterial outer membrane biogenesis, but also have signi
39 e insertion of beta-barrel proteins into the bacterial outer membrane, but it is unclear whether it t
40 se incorporating lipopolysaccharide, a major bacterial outer membrane component) and induce a compara
41 ling and on innate inflammatory responses to bacterial outer membrane components, including purified
42 studied; however, the contribution of other bacterial outer membrane components, such as Braun (mure
44 ccharide (LPS), a component of Gram-negative bacterial outer membranes, comprises three regions: lipi
45 ollowing release of these molecules from the bacterial outer membrane during cell division or attack
46 ed in formation of lipopolysaccharide in the bacterial outer membrane), ebgR (lactose utilization rep
47 e OspE1/OspE2 proteins were localized to the bacterial outer membrane following exposure to bile salt
48 e; the insertion of the pore domain into the bacterial outer membrane follows the rules of beta-barre
50 ic, major, integral protein component of the bacterial outer membrane, functions as a critical determ
51 tes the assembly of the T3SS secretin in the bacterial outer membrane, highlighting the molecular rol
52 robably contribute to the remodelling of the bacterial outer membrane in response to the host environ
53 al peptide, this protein is localized on the bacterial outer membrane, indicating that it is transpor
57 e insertion of proteins in the gram-negative bacterial outer membrane, is the surface molecule recogn
60 ts of eukaryotic membranes (cholesterol) and bacterial outer membranes (lipopolysaccharide or LPS).
61 iderophore transporters of the Gram-negative bacterial outer membrane manifest a unique architecture:
62 t to sporulation as a mechanism by which the bacterial outer membrane may have arisen and A. longum a
64 ide (CAMP) antibiotic that permeabilizes the bacterial outer membrane (OM) and has been used to treat
67 lly consists of a transporter located in the bacterial outer membrane (OM) which is responsible for t
68 nslocation intermediates associated with the bacterial outer membrane (OM), we generated constructs i
71 rfamily, and seven families of Gram-negative bacterial outer membrane porins, largely account for the
74 e of host cells, where it interacts with the bacterial outer membrane protein intimin and triggers ce
81 o hypothesize that TP0453 is a novel type of bacterial outer membrane protein which may render the T.
82 vent is mediated, in part, by binding of the bacterial outer membrane protein, intimin, to a second E
84 e energy landscape for the dimerization of a bacterial outer membrane protein, NanC, in a phospholipi
86 oprotein (PAL) is a ubiquitous gram-negative bacterial outer-membrane protein that is shed by bacteri
90 g bacteria bound to at least three conserved bacterial outer membrane proteins (OMPs), but not LPS, a
92 pid bilayer via transmembrane alpha-helices, bacterial outer membrane proteins adopt a beta-barrel ar
94 design of biological nanopores is focused on bacterial outer membrane proteins and pore-forming toxin
100 Crystal structures have been solved for two bacterial outer membrane proteins, FhuA and FepA, which
101 r substitutions that do not occur in natural bacterial outer membrane proteins, we succeeded in engin
106 s of siderophores covalently linked to their bacterial outer membrane receptors represent a credible
107 ism by which TcpF is translocated across the bacterial outer membrane requires the TCP biogenesis mac
108 A search for the TSF binding targets on the bacterial outer membrane resulted in identification of P
109 y mediate their own translocation across the bacterial outer membrane: the carboxy-terminal beta doma
112 that hopanoids interact with glycolipids in bacterial outer membranes to form a highly ordered bilay
113 nzymes and filamentous bacteriophages across bacterial outer membranes to the extracellular milieu.
114 The binding and recognition of ligands by bacterial outer membrane transport proteins is mediated
115 selected sites within the beta-barrel of the bacterial outer-membrane transport protein BtuB by site-
116 ompare transmembrane signaling events in the bacterial outer-membrane transport proteins BtuB, FecA,
118 n tissue and most likely in the form of shed bacterial outer membrane vesicles ("blebs"), we examined
121 Our results demonstrate that production of bacterial outer membrane vesicles is a fully independent
122 st a novel role of BPI in the interaction of bacterial outer membrane vesicles with dendritic cells t
125 lecular forms of Tpr are associated with the bacterial outer membrane where they are likely responsib
126 ce arises through charge modification of the bacterial outer membrane with the attachment of the cati
127 membrane vesicle (OMV) which is composed of bacterial outer membrane wrapped around contents of the
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