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1 tely 20 times less fluorescent than the free lipopeptide.
2 MBP with the negatively charged, dye-labeled lipopeptide.
3  NRPS cluster that generates a seven-residue lipopeptide.
4 wn for the Pam(3)CysSerLys(4) (Pam(3)CSK(4)) lipopeptide.
5 ramagnetic lipid and a fluorescently labeled lipopeptide.
6  to Francisella lipoproteins and triacylated lipopeptide.
7  to recognize TUL4, FTT1103, and triacylated lipopeptide.
8 ase K digestion, suggesting involvement of a lipopeptide.
9 -6 in combination with a synthetic bacterial lipopeptide.
10 o Gram-positive bacteria, peptidoglycan, and lipopeptide.
11 bserved antibacterial activity of this novel lipopeptide.
12 by Myrcludex B, a synthetic N-acylated preS1 lipopeptide.
13 ular patterns, including di- and triacylated lipopeptides.
14  the binding and insertion process for these lipopeptides.
15 is induced in response to microbial acylated lipopeptides.
16 compared with SVLPs lacking immunomodulatory lipopeptides.
17 eceptor 1/2 (TLR1/2) activation by bacterial lipopeptides.
18 with a mixture of the three CD4-CD8 HSV-1 gD lipopeptides.
19 peptide are involved in CD1c presentation of lipopeptides.
20 base lysine amino group to construct CD4-CD8 lipopeptides.
21 TLR2-TLR1 heterodimers recognize triacylated lipopeptides.
22 e second member of the CD1 family to present lipopeptides.
23 uantity of stereoisomers of bacteria-derived lipopeptides.
24 ymatic cleavage of the liposome-incorporated lipopeptides.
25 ith fatty acids to prepare the corresponding lipopeptides.
26 12, is required for the sensing of bacterial lipopeptides.
27 roduction of six structurally related linear lipopeptides.
28 ll-like receptor (TLR) ligands except diacyl lipopeptides.
29 e peptide component of didehydroxymycobactin lipopeptides.
30 to discriminate between structurally similar lipopeptides.
31 dentified as originating from various cyclic lipopeptides.
32 trometry on the precursor ions of the cyclic lipopeptides.
33  and a TLR2-dependent response to associated lipopeptides.
34 ls to TLR2 ligands, including LPS-associated lipopeptides.
35 volutionary branch of the Pseudomonas cyclic lipopeptides.
36 tivity and selectivity of B. subtilis QST713 lipopeptides.
37  receptor stimulation by pathogen-associated lipopeptides.
38  antibacterial activity of the nisin-derived lipopeptides.
39 tration of palmitate, fibroblast-stimulating lipopeptide-1, a known TLR2 ligand, was a slightly more
40 eoisomer of diacylated macrophage-activating lipopeptide 2 (MALP-2) exclusively activates epithelial
41  TLR2 agonists such as macrophage-activating lipopeptide-2, activity of the M. arthritidis-derived 28
42  with a TLR2/6 ligand, macrophage-activating lipopeptide-2, or a TLR3 ligand, polyinosinic-polycytidy
43  specific TLR2 ligands macrophage activating lipopeptide-2, PAM2-Cys, and Lip19; this was observed to
44 s when stimulated with macrophage-activating lipopeptide-2, polyinosinic-polycytidylic acid, or UVB (
45 2)-dependent manner by macrophage-activating lipopeptide-2.
46 the fact that the effect of cell-penetrating lipopeptide (a pepducin), suggested to act primarily thr
47         Secretion of IL-1beta in response to lipopeptide, a TLR2 agonist, was greatly reduced in ASC-
48   To investigate the newly emerging roles of lipopeptides, accurate measurements of stereoisomers wit
49                                       Cyclic lipopeptides act against a variety of plant pathogens an
50 idual lipid components in model membranes on lipopeptide activity.
51 imed to investigate the potential of a novel lipopeptide/adenovirus type 5 (Lipo/rAdv5) prime/boost m
52   After incubating CD1a with a mycobacterial lipopeptide Ag, dideoxymycobactin (DDM), we identified a
53                                          The lipopeptides aggregate in the lipopolysaccharide headgro
54 of TLR1 and TLR2 and a synthetic triacylated lipopeptide agonist.
55  we describe the discovery of a new group of lipopeptide aldehydes, the flavopeptins, and the corresp
56  isolation of the highly N-methylated linear lipopeptides, almiramides A-C (1-3).
57                       Pam(3)Cys, a synthetic lipopeptide, also induced SOCS1/SOCS3 expression under t
58                                Antimicrobial lipopeptides (AMLPs) are antimicrobial drug candidates t
59 usters responsible for the production of the lipopeptide anabaenolysin.
60 nd to a synthetic tripalmitoylated bacterial lipopeptide analogue (Pam(3)CSK(4)).
61 ibitors, and new lincosamide, oxazolidinone, lipopeptide and cephalosporin derivatives.
62 h between the acyl chains of the synthesized lipopeptide and phospholipid components of the liposomes
63 expected mechanism of action for this unique lipopeptide and suggest future development of this and s
64 s greatly impaired in mediating responses to lipopeptides and a variety of other bacterial agonists f
65 TLR1, revealed that TLR10 senses triacylated lipopeptides and a wide variety of other microbial-deriv
66 th TLR1 and TLR6, is essential for detecting lipopeptides and bacterial cell wall components such as
67 cluding biosurfactants such as antimicrobial lipopeptides and saponins, often show a superior perform
68 T cells induced by these molecularly defined lipopeptides and their protective efficacy were assessed
69 enantiomer of MALP-2 (a diacylated bacterial lipopeptide) and to lipoteichoic acid.
70 covalently linked to a palmitic acid moiety (lipopeptides) and delivered subcutaneously in adjuvant-f
71 mouse models of inflammation: LPS, bacterial lipopeptide, and polymicrobial intra-abdominal sepsis.
72       TLR2 recognizes bacterial lipoproteins/lipopeptides, and lipopolysaccharide activates TLR4.
73 dy, we developed pepducins, cell-penetrating lipopeptide antagonists of CXCR4, to interdict CXCL12-CX
74 f the labeled Trp into the calcium-dependent lipopeptide antibiotic (CDA4a).
75                                  A54145 is a lipopeptide antibiotic related to daptomycin that permea
76 a sp. CNQ-490 and produced the dichlorinated lipopeptide antibiotic taromycin A in the model expressi
77                          Daptomycin is a new lipopeptide antibiotic that is rapidly bactericidal agai
78                              Daptomycin is a lipopeptide antibiotic that is used clinically against m
79                      Daptomycin is an acidic lipopeptide antibiotic that, in the presence of calcium,
80                              Daptomycin is a lipopeptide antibiotic used clinically for the treatment
81                         Laspartomycin C is a lipopeptide antibiotic with activity against a range of
82                              Daptomycin is a lipopeptide antibiotic with activity against several imp
83                                Daptomycin, a lipopeptide antibiotic with activity against virtually a
84                   Daptomycin, a novel cyclic lipopeptide antibiotic, exhibits rapid bactericidal acti
85 lated from soil and found to produce a novel lipopeptide antibiotic.
86  (3mGlu) has been found only in three cyclic lipopeptide antibiotics: daptomycin and the A21978C fami
87 and for CD1a demonstrates how a nonribosomal lipopeptide antigen is presented to T cells.
88 ce quenching during loading of a dodecameric lipopeptide antigen, provides a compelling model by whic
89 ediates T cell recognition of glycolipid and lipopeptide antigens that contain either one or two alky
90 cess that includes secretion of surfactin, a lipopeptide antimicrobial agent.
91                                          The lipopeptide antimicrobial daptomycin has in vitro bacter
92                              Daptomycin is a lipopeptide antimicrobial that is rapidly bactericidal a
93 h both the lipid and peptide moieties of the lipopeptide are involved in CD1c presentation of lipopep
94                   Antimicrobial peptides and lipopeptides are a promising category of candidates, but
95                        Isolated or synthetic lipopeptides are potent vaccine adjuvants, interacting w
96 2 with its lipid A moiety, whereas bacterial lipopeptides are recognized by TLR2.
97  and lipase sensitive, suggesting that small lipopeptides are responsible for the strong IL-8 inducti
98 acterial species revealed that the antigenic lipopeptides are specific for strains of the M. tubercul
99                Collagen-mimetic peptides and lipopeptides are widely used as substrates for matrix de
100 ntracellular pathogen detection and identify lipopeptides as a biochemical class of antigens for T ce
101 ion as criterion when optimizing peptides or lipopeptides as antibiotic leads.
102 2]e(-) reductions to release thioester-bound lipopeptides as corresponding alcohols, using a nonproce
103 egies of introducing ionizable groups on the lipopeptide, as well as the systematic evaluation of che
104 lcium-dependent antibiotics (CDA) are cyclic lipopeptides assembled by nonribosomal peptide synthetas
105 a cocrystallized with a synthetic mycobactin lipopeptide at 2.8 A resolution further reveals that the
106 analogue and a molecular subfamily of cyclic lipopeptides, bananamides 1, 2 and 3.
107                                   Engineered lipopeptide-based surfaces offer unique presentation opt
108 nd structure-activity analyses of the cyclic lipopeptide battacin which revealed that conjugation of
109 esis that immunization with self-adjuvanting lipopeptide bearing HSV-1 glycoprotein D (gD) T-cell epi
110 x, SSL3 partially covers the entrance to the lipopeptide binding pocket in TLR2, reducing its size by
111 on of the essential TLR2 dimer interface and lipopeptide-binding channel found in TLR1.
112  these metabolites identified a new class of lipopeptide biosurfactants/biofilm modulators (the malle
113  an anti-TLR2 blocking Ab before addition of lipopeptide blocked the phenotypic and functional change
114                                    Bacterial lipopeptides (bLPs) are increasingly used as adjuvants t
115 of multiple TLR ligands, including bacterial lipopeptides (BLPs), LPS, and the imidazoquinoline compo
116 (TLR 2/1) and diacylated (TLR 2/6) bacterial lipopeptides (BLPs).
117 (4), and Pam(3)C-Lip, a GC-derived synthetic lipopeptide, but not TLR4 agonists including LPS or GC l
118 nding mechanism of a synthetic antimicrobial lipopeptide, C16-KGGK.
119 other class of peptides, cyclic glycosylated lipopeptides called hassallidins, show antifungal activi
120 as seen in the group that was immunized with lipopeptide can be attributed to an influence on the ada
121 ncerted action of magainin 2, the fungicidal lipopeptide class of surfactins from Bacillus subtilis Q
122             Our earlier work on the monoacyl lipopeptide class of TLR2 agonists led to the design of
123                                      The MBP-lipopeptide complex serves as a protein substrate for se
124 , by interacting with an already formed TLR2-lipopeptide complex, it prevents TLR heterodimerization
125                          The removal of TLR2 lipopeptide components from LPS by phenol re-extraction
126 f-assembled nanostructures of various hybrid lipopeptides composed of 1:1 alternating alpha- and E-vi
127 ll cultures with a TLR2 agonist, a synthetic lipopeptide comprising the N-terminal portion of the put
128 ke receptor 2 targeting lipid moiety to form lipopeptide constructs.
129 ke receptor 2-mediated macrophage-activating lipopeptide containing the N-terminal 14 residues of the
130  Vaccination with a mixture self-adjuvanting lipopeptides containing novel HSV-1 immunodominant gD T-
131  was required, as beads coated only with the lipopeptide core failed to delay phagosome-lysosome fusi
132 om Mycobacterium smegmatis are composed of a lipopeptide core unit consisting of a modified C(26)-C(3
133 phobic TLR2 PAMPs within di- and triacylated lipopeptide cores (P2Cys-SVLPs and P3Cys-SVLPs) compared
134      Only SVLPs carrying di- and triacylated lipopeptide cores induced DC activation and maturation i
135  of inflammatory pathways, we tested whether lipopeptides corresponding to the products of the newly
136 e of the appropriate rIFN-beta, to synthetic lipopeptides corresponding to the triacylated N-terminal
137 These preclinical experiments show that this lipopeptide could form the basis of an optimal needle-fr
138                     The cyclic antimicrobial lipopeptide daptomycin (DAP) triggers the LiaFSR membran
139                                          The lipopeptide daptomycin has been approved for use in skin
140  variety of antibiotics including the cyclic lipopeptide daptomycin.
141    However, examination of a wide variety of lipopeptide derivatives indicates that recognition by hu
142  myristoylated preS-peptide (Myrcludex-B), a lipopeptide derived from the pre-S1 domain of the HBV en
143                                              Lipopeptides derived from lipoproteins activate innate i
144 nded in a TLR2-dependent manner to bacterial lipopeptides derived from Pseudomonas lipoproteins induc
145 ift in the OM topology of sequence-identical lipopeptides due to a single-variable change in environm
146 52 was attributed to thanamycin, a predicted lipopeptide encoded by a nonribosomal peptide synthetase
147 s particles were immunized with a mixture of lipopeptides encompassing the Env.28, Env.362, and Env.3
148  T cell responses to mycobacterial lipid and lipopeptide-enriched Ag preparations were analyzed in im
149            Amphomycin and MX-2401 are cyclic lipopeptides exhibiting bactericidal activities against
150 ntain Bacillus subtilis strains that produce lipopeptide families, such as surfactins (SF), iturins (
151 chemical and genetic analyses identified the lipopeptide fengycin as the major inhibitory molecule pr
152 ramides A and B are immunosuppressant cyclic lipopeptides first reported from the marine alpha-proteo
153 yngbya majuscula strain 19L as a chlorinated lipopeptide for its potent molluscicidal activity.
154              Besides the specificity of this lipopeptide for MAP, the presence of an N-Me-L-valine re
155 flammatory potency of pnLTA, we generated a (lipopeptide-free) Deltalgt mutant of strain D39Deltacps,
156                     Bacaucin, a novel cyclic lipopeptide from Bacillus subtilis CAU21, is reported.
157 CD1a presents a family of previously unknown lipopeptides from Mycobacterium tuberculosis, named dide
158                         Synthetic analogs of lipopeptides from Treponema pallidum also inhibited Ag p
159 crobial products, including lipoproteins and lipopeptides, from a number of pathogens.
160 nthetic TLR2/6 ligand Fibroblast-stimulating lipopeptide (FSL-1) substantially prolongs survival in b
161 lop unique CXCR4-targeted therapeutics using lipopeptide GPCR modulators called pepducins.
162               To date, pepducins and related lipopeptides have been shown to specifically modulate th
163 ous structure-activity relationships in such lipopeptides have largely been obtained using murine cel
164  air-liquid interface responded to bacterial lipopeptide in a TLR2-dependent manner with induction of
165 inone in clinical use, daptomycin, the first lipopeptide in clinical use, and telithromycin, a ketoli
166 y high (25 microg mL(-1)), the levels of the lipopeptide in roots colonized by B. subtilis are likely
167  a lipophilic drug in aqueous solution and a lipopeptide in serum.
168              B. subtilis QST713 produces the lipopeptides in a ratio of 6 mol SF: 37 mol FE: 57 mol I
169 heterodimers recognize triacylated bacterial lipopeptides, including the synthetic TLR1/2 lipopeptide
170                             Stimulation with lipopeptides increased expression of CD83, MHC class II,
171 tail of these three highly immunogenic Th(1) lipopeptides increased survival, lowered the peak of ocu
172 ra from uninfected cattle, reacted with this lipopeptide, indicating potential biological importance.
173                                          The lipopeptide-induced apoptosis of Schwann cells could be
174            The current studies revealed that lipopeptide-induced TLR2 signaling inhibited induction o
175 lytic domain with a 5S-penem inhibitor and a lipopeptide inhibitor reveal candidate residues that mak
176 > 32-fold decreased susceptibility) to these lipopeptide inhibitors of cell wall synthesis is rare an
177 ment within bacteria cell walls would impair lipopeptide interaction with cell surface TLR2, requirin
178 ed by CD1 and that the peptide moiety of the lipopeptide is recognized by the TCR.
179                         Daptomycin, a cyclic lipopeptide, is the only membrane-active antibiotic appr
180  found that biomarkers, identified as cyclic lipopeptides known as fengycin and surfactin, could be d
181         Thus, BPPcysMPEG, a novel diacylated lipopeptide ligand for TLR2-TLR6 heterodimer, induces IL
182 cture of a complex between TLR1, TLR2, and a lipopeptide ligand.
183 peptide epitopes or with Toll-like receptor2 lipopeptide ligands or in three-component vaccines with
184 ide, or mannosyl-phosophomycoketide, but not lipopeptide ligands.
185 previously uncharacterized glycopeptide- and lipopeptide-like antibiotics; thiocoraline-, azinomycin-
186                                  We report a lipopeptide-like sequence (C10OOc12O) that inflicted out
187 ared with mice immunized with the homologous lipopeptide/lipopeptide (Lipo/Lipo) vaccine, the Lipo/rA
188                            The structures of lipopeptides lobocyclamides A (1), B (2), and C (3) were
189                                              Lipopeptide (LP) biosynthesis was induced in Pseudomonas
190  inflammatory responses induced by bacterial lipopeptide, LPS, and TNFalpha.
191 D32 expression and endocytic activity; these lipopeptide-matured DC also displayed enhanced T cell st
192                                          The lipopeptides may therefore be useful as potential immuno
193                                         Such lipopeptides may therefore be useful in fighting gram-ne
194                  The echinocandins are large lipopeptide molecules that are inhibitors of beta-(1,3)-
195                  The echinocandins are large lipopeptide molecules that, since their discovery approx
196 d microbial agents, including bacterial LPS, lipopeptide, Mycobacterium tuberculosis, cord factor, an
197 mplex with a negatively charged, dye-labeled lipopeptide, (N-heptadecanoyl)-K(dye2)-linker-EEIYGEF-am
198         Motivated by lipoproteins, we report lipopeptide nanoparticles as potent and selective siRNA
199 poration of the peptide into self-assembling lipopeptide nanoparticles that mimic native human high d
200 halassospiramides comprise a large family of lipopeptide natural products produced by Thalassospira a
201 e that the mechanism of T cell activation by lipopeptides occurs via ternary interactions of CD1a/Ag/
202 ructural identification of a major cell wall lipopeptide of MAP, termed Para-LP-01, defined as C20 fa
203 -methylated amino acid within an immunogenic lipopeptide of mycobacteria.
204         Fusions of mRFP1 to short N-terminal lipopeptides of OspA, and surprisingly OppAIV, were targ
205  consisting of multiple ultrashort histidine lipopeptides on a triazacyclophane scaffold, which showe
206 present HIV-derived peptides conjugated to a lipopeptide or HIV-infected cells undergoing apoptosis.
207 wn to inhibit signaling induced by bacterial lipopeptide or lipopolysaccharide (LPS), yet the mechani
208 s to nanogram levels of either the synthetic lipopeptide or OspA lipoprotein agonist.
209 ficient" conditions the TLR2/1 ligand 19 kDa lipopeptide or the TLR4 ligand LPS, monocytes showed inc
210  by acting as mobile carriers of triacylated lipopeptides or lipoproteins.
211 andles for the preparation of glycopeptides, lipopeptides or other peptide conjugates; one such trans
212            Injections of tecemotide (806 mug lipopeptide) or placebo were given every week for 8 week
213 -activity relationship analyses of 17 linear lipopeptide paenipeptin analogues.
214 ysaccharide (LPS) and the synthetic acylated lipopeptide Pam3CSK4.
215 lipopeptides, including the synthetic TLR1/2 lipopeptide Pam3CSK4.
216 e to lipoteichoic acid (LTA) and a synthetic lipopeptide (Pam3CSK4) was investigated.
217 controls, and stimulation with the synthetic lipopeptide Pam3Cys, an agonist of TLR1/2, reduced Treg
218 ted outer surface protein A, and triacylated lipopeptide Pam3CysSerLys4 results in the up-regulation
219          New analogues (UPam) of triacylated lipopeptide Pam3CysSK4, a popular agonist of Toll-like r
220 velopment of first-in-class cell-penetrating lipopeptide "pepducin" antagonists of PAR2.
221 his process is blocked by a cell-penetrating lipopeptide "pepducin," P1pal-7, which is a potent inhib
222 tin but not to beta-sheet defensin HNP-1 and lipopeptide polymyxin B.
223 n 2, the beta-sheet defensins and the cyclic lipopeptide polymyxin B.
224 ly, human TLR2 and -6 exclusively respond to lipopeptides possessing a diacylglycerol group.
225           Our simulations suggest that these lipopeptides prefer to aggregate in solution and alter t
226 Toll-like receptor 1 (TLR2/1) by triacylated lipopeptide, preferentially induced differentiation into
227 panded T cells specifically responded to the lipopeptide preparation.
228                                    Lipid and lipopeptide preparations as well as complex Ag mixtures,
229            Finally, we showed that bioactive lipopeptides prepared from M. arthritidis grown in serum
230                        Surfactin is a cyclic lipopeptide produced by B. subtilis that inhibits the fo
231                         Daptomycin, a cyclic lipopeptide produced by Streptomyces roseosporus, is the
232                           Anabaenolysins are lipopeptides produced by cyanobacteria with potent lytic
233 rong ermEp* promoter substantially increased lipopeptide production.
234                                              Lipopeptides promote innate immune response and are rela
235                             In contrast, the lipopeptides readily insert into the inner membrane core
236                                    Synthetic lipopeptides representing the 19-kD and 33-kD lipoprotei
237 Stimulation of epithelial cell cultures with lipopeptide resulted in a small and variable reduction o
238   Injection of radioactively labeled HBVpreS-lipopeptides resulted in rapid accumulation in livers of
239 at lymphocytes treated with this Src-mimetic lipopeptide revealed that this compound is palmitoylated
240 beta mRNA expression induced by LPS, and the lipopeptides S-[2,3-bis(palmitoyloxy)-(2-RS)-propyl]-N-p
241 ity is extraordinarily challenging given the lipopeptide's extreme hydrophobicity and propensity to m
242  TLR2 binding modes reminiscent of bacterial lipopeptide sensing.
243 he lipid tail to generate a library of novel lipopeptides, some of which were as active as daptomycin
244 ted from marine organisms, we identified the lipopeptide somocystinamide A (ScA) as a pluripotent inh
245 tion that is reversed by the presence of the lipopeptide SP-C.
246                          The hypothesis that lipopeptide-specific T cells dominate the early BCG-indu
247 , these studies demonstrate the existence of lipopeptide-specific T cells in humans ex vivo.
248                                         This lipopeptide stimulated the release of the proinflammator
249 ipoarabinomannan- and tripalmitoyl cysteinyl lipopeptide-stimulated cytokine secretion from mononucle
250 low cytometry revealed that this fluorescent lipopeptide substrate represents a highly sensitive mole
251                                 Nonribosomal lipopeptides such as the plant immunity elicitor surfact
252 odel system, we have demonstrated that these lipopeptides support efficient cell binding and spreadin
253 y S. coelicolor is inhibited by surfactin, a lipopeptide surfactant produced by B. subtilis.
254                  In contrast, the fungicidal lipopeptides surfactin, fengycin, and iturin from Bacill
255 eptidase that disrupts interactions with the lipopeptide tail of the antibiotic.
256 -methylated peptide macrocycle attached to a lipopeptide tail, and in the case of the lipoglycopeptid
257 ation, we synthesized analogues with altered lipopeptide tails and identified several with an increas
258                                      HBVpreS-lipopeptides target to the liver.
259                        Surprisingly, natural lipopeptide telomycin precursors were identified when ch
260  The TEM precursor and several semisynthetic lipopeptide TEM derivatives showed rapid bactericidal ki
261 ment of lethal sepsis using cell-penetrating lipopeptides-termed pepducins-that target either individ
262 nificantly enhanced formation of a TLR1.TLR2 lipopeptide ternary complex as measured by size exclusio
263 ced MICs; therefore, 50 mug/ml (standard for lipopeptide testing) is recommended.
264 rprising finding of higher potency in linear lipopeptides than their cyclic counterparts is economica
265 ycin and showed that it is a monochlorinated lipopeptide that belongs to the syringomycin family of a
266 nt with the loss of the ability to produce a lipopeptide that functions as a biosurfactant.
267                 Daptomycin is a novel cyclic lipopeptide that is approved by the U.S. Food and Drug A
268 Surfactant protein C (SP-C) is a hydrophobic lipopeptide that is critical for lung function, in part
269 tection of Pam3CSK4, a synthetic triacylated lipopeptide that mimics the structural moieties of its n
270 y antigenic, MHC-II-restricted mycobacterial lipopeptides that are recognized by CD4-positive T lymph
271               Pepducins are cell-penetrating lipopeptides that have enabled chemical and physical acc
272                                     Three gD lipopeptides, that drive dendritic cell maturation in vi
273 ion by TLR ligands other than LPS, bacterial lipopeptide (TLR2) and CpG (TLR9), via this TLR4-depende
274 eficient DCs failed to present mycobacterial lipopeptide to T cells but had no defects in endocytosis
275 ymphocyte chimeric epitopes (Th-CTL chimeric lipopeptides) to induce herpes simplex virus type 1 (HSV
276 ge of previously unknown telomycin precursor-lipopeptides, to yield 6-methylheptanoic acid and telomy
277 ngth of protective immunity induced by these lipopeptides together with their safety provide a molecu
278 ance NMR measurements determined that cyclic lipopeptide-treated S. aureus exhibited thinning of the
279  TLR2-specific ligands peptidoglycan and the lipopeptide tri-palmitoyl-S-glyceryl-Cys-Ser-(Lys)(4) th
280 to increase the potency of the antimicrobial lipopeptide tridecaptin A1.
281               Toll-like receptor 2-agonistic lipopeptides typified by S-[2,3-bis(palmitoyloxy)-(2RS)-
282 a series of recently developed antimicrobial lipopeptides, using coarse-grained molecular-dynamics si
283  responses induced by the mixture of CD4-CD8 lipopeptide vaccine and the protective efficacy against
284                                          The lipopeptide vaccine and the rAdv5 vaccine express the im
285              Moreover, we demonstrate that a lipopeptide version of the same peptide is able to bind
286                                   This novel lipopeptide was membrane lytic and exhibited antibiofilm
287 lved in the synthesis of a virulence-related lipopeptide, was mis-annotated as a fatty acyl-CoA ligas
288                     Daptomycin, a new cyclic lipopeptide, was recently approved for the treatment of
289 cifically blocked by L-protein-derived preS1-lipopeptides, we visualized specific HBV receptor/ligand
290                                        These lipopeptides were isolated from an inactivation mutant o
291                 Structures for each of these lipopeptides were proposed based on amino acid analysis
292 idus necator H16 produces a family of linear lipopeptides when grown under low iron conditions.
293  (CD) spectroscopy, we demonstrated that the lipopeptides, when incorporated into liposomes, are demi
294                              Daptomycin is a lipopeptide with bactericidal activity that acts on the
295                           Variations of this lipopeptide with different fatty acyl moieties (C16 fatt
296     Tridecaptin A1 (TriA1) is a nonribosomal lipopeptide with selective antimicrobial activity agains
297                                 Novel cyclic lipopeptides with different acyl tails were synthesized
298 crospheres coated with a synthetic Wolbachia lipopeptide (WoLP) of the major nematode Wolbachia TLR2/
299          Deletion of dptGHIJ reduced overall lipopeptide yield and led to production of a series of n
300  tool to guide the isolation of a new cyclic lipopeptide, yuvalamide A, from a marine cyanobacterium.

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