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1 matic effect on murein hydrolase activity or autolysis.
2 XCP2 has a minor but distinct role in micro-autolysis.
3 r through trypsin-mediated cleavages, termed autolysis.
4 f AtlA, and the mutant was hyperresistant to autolysis.
5 els of AtlA protein and led to resistance to autolysis.
6 ytic cleavage site and protects MT1-MMP from autolysis.
7 system that is involved in the regulation of autolysis.
8 growth, and increased cell permeability and autolysis.
9 rected gene expression, cell separation, and autolysis.
10 d in cell separation, biofilm formation, and autolysis.
11 , biofilm formation, genetic competence, and autolysis.
12 s responsible for cell wall breakdown during autolysis.
13 s and is dependent on the intrinsic level of autolysis.
14 um formation and exhibited enhanced cellular autolysis.
15 could be inhibited by the peptide product of autolysis.
16 nsitive to EDTA, a compound known to trigger autolysis.
17 of function of Pep27 or VncRS does not alter autolysis.
18 e virulence genes and more genes involved in autolysis.
19 owed reduced rates of cell wall turnover and autolysis.
20 that, when purified, it apparently underwent autolysis.
21 ctioning mitochondria by processes involving autolysis.
22 e regulators, involved in regulation of cell autolysis.
23 e loss of organelles as a result of cellular autolysis.
24 absence of active MMP-2, suggesting MT1-MMP autolysis.
25 ical content coevolved in proteases to avoid autolysis.
26 refore, it appeared to be an easy target for autolysis.
27 l enzymes that dissolve the cell wall during autolysis.
28 system affects murein hydrolase activity and autolysis.
29 a small but significant decrease in rates of autolysis.
30 oxin pneumolysin through increased bacterial autolysis.
31 analyze the changes in oligomerization upon autolysis.
32 is in the control pathway for triggering of autolysis.
33 umococcal physiology including adherence and autolysis.
34 rus migration through them, concomitant with autolysis.
35 lcium concentrations below that required for autolysis.
36 hibition of cell wall synthesis, and trigger autolysis.
37 el and inner ear cells are very sensitive to autolysis.
38 e cell wall synthesis machinery and triggers autolysis.
39 n1 correlated with a defect in LytA-mediated autolysis.
40 s was much lower than that for the classical autolysis.
41 dly released due to high levels of bacterial autolysis.
42 ted with defects in cell shape and increased autolysis.
43 of extracellular LytA dictates the onset of autolysis.
44 ometry, which triggers the slower process of autolysis.
45 activity, and show increased sensitivity to autolysis.
46 on the autolytic sites of CAPN3, rather than autolysis.
48 essure, which is possibly related to reduced autolysis after exposure to subinhibitory concentrations
50 ith disintegrating cellular material as mega-autolysis, aided by additional lytic enzymes, destroyed
51 ependently down-regulated sarV (a marker for autolysis), although the alteration in sarV expression d
52 revealed that TiO2 NPs prevent or delay cell autolysis, an important survival and growth-regulating p
55 ddition, the arlS mutant exhibited increased autolysis and altered peptidoglycan hydrolase activity c
56 toplasmic proteins are released by bacterial autolysis and become adsorbed to the surface of intact b
57 study, the effects of oxidation on calpain I autolysis and calpain-mediated proteolysis were examined
60 potential mechanism of Gcp's involvement in autolysis and demonstrated that Gcp may function indepen
64 ant that exhibited a growth defect, enhanced autolysis and increased sensitivity to Triton X-100 and
66 late also had decreased Triton X-100-induced autolysis and killing when incubated in broth media cont
67 reakdown is initially dominated by anaerobic autolysis and later by microbe and insect infiltration,
69 ed type I IFN induction levels and decreased autolysis and lysostaphin sensitivity was found between
70 onomeric forms of MT6-MMP exhibited enhanced autolysis and metalloprotease-dependent degradation.
71 y, (i) an enzyme optimized for resistance to autolysis and oxidation, referred to as the cleavage-res
74 GelE and SprE--is responsible for regulating autolysis and the release of high-molecular-weight eDNA,
75 ion of 19 potential target genes involved in autolysis and virulence, phenotypes affected by sarA and
77 differences such as faster growth, increased autolysis, and decreased intracellular hemolytic activit
81 h, tendency to aggregate in culture, reduced autolysis, and reduced ability to grow under stress, inc
83 echanism, but rather to bacterial leakage or autolysis, and that the extracellular abundance of these
84 iability following exponential growth due to autolysis, and the necessity for using high starting ino
85 aphylococcus aureus on cell wall metabolism, autolysis, and virulence, mostly in S. aureus laboratory
86 otonmotive-force and preventing the onset of autolysis; and (ii) indirectly, through adsorption of au
87 beta-lactams were dramatically less prone to autolysis as a result of decreased transcription and enz
88 lysin LytA is a virulence factor involved in autolysis as well as in fratricidal- and penicillin-indu
89 asic mechanism of proteolysis and propeptide autolysis, as well as the evolutionary pressures that dr
91 e shrimp (Litopenaeus vannamei) subjected to autolysis at 60 degrees C for different times (0, 30, 60
94 comparable, and the active enzymes suffered autolysis at similar rates, indicating that neither cata
96 be determined, several factors influence the autolysis behavior of S. pneumoniae, including the bacte
97 y cellular processes in S. aureus, including autolysis, biofilm formation, capsule synthesis and viru
98 s place in 3 distinct steps: (i) blockage of autolysis by reducing or anaerobic conditions, (ii) rapi
99 molecular-weight excreted molecule, triggers autolysis by self-perturbing the electron transfer react
100 1' position of this cleavage site attenuated autolysis by the enzyme and restored wild-type dimerizat
102 o potential mechanisms for the disruption of autolysis by TiO2 NPs in a concentration dependent manne
103 signatures of mRNA exposed up to 37 days of autolysis, can be used to validate the putative identity
105 heir growth, stress tolerances, respiration, autolysis, cell death, sterigmatocystin production, hyph
106 s involved in different functions, including autolysis, cell division, growth, and pathogenesis.
108 competitive oral biofilm environment, where autolysis could create open spaces for competitors to in
111 g an autolytic activity was identified in an autolysis-deficient mutant (Lyt-) of Staphylococcus aure
113 ometry indicate that the factor Xa underwent autolysis during crystallization and the first EGF-like
119 ttle in contact with wine lees because yeast autolysis enriches the wines in colloids and improves th
120 the ability to form disulfide bonds affected autolysis, extracellular DNA release, biofilm formation,
121 cassette, and the mutants were analyzed for autolysis, extracellular DNA release, biofilm formation,
122 s release of the enzyme from bacteria due to autolysis followed by adsorption of the enzyme to the su
125 e also revealed that beta-lactams modify the autolysis function (the natural process of self-exfoliat
126 homogenization (HPH) was tested for inducing autolysis in a commercial strain of Saccharomyces bayanu
127 Ca(2+), Asn-21- and Ile-21-trypsins suffered autolysis in an indistinguishable manner, whereas Thr-21
129 eath is a result of loss in cell wall due to autolysis in combination with stinted replenishing.
132 m that has been shown to negatively regulate autolysis in methicillin-sensitive Staphylococcus aureus
136 eB-null mutant exhibits an increased rate of autolysis in response to cell wall-targeting antibiotics
143 of cell wall turnover and detergent-induced autolysis in virtual parallel with the increasing MIC fo
144 gest that agr and sar exert their effects on autolysis, in part, by modulating murein hydrolase expre
146 ed the cell survival of Bacillus subtilis in autolysis-inducing buffer by 0.5 to 5 orders of magnitud
149 lactams, suggesting that HQNO-dependent cell autolysis is advantageous to the bacterial populations.
153 The dynamic equilibrium between growth and autolysis is perturbed by the presence of the antimicrob
156 ivated proteases in post-necrotic myocardial autolysis is well characterized, their importance in hom
157 the surface of intact bacteria ("altruistic autolysis"), is essential for survival of H. pylori in a
159 ed enzyme: the N-terminus (Gly14-Gly19), the autolysis loop (Gly142-Thr154), and the 180s loop (Pro18
163 ut accelerated CTRC-mediated cleavage of the autolysis loop and did not protect against the detriment
164 ed that Arg-143, Lys-147, and Arg-154 of the autolysis loop and Lys-96, Lys-169, and Lys-236 of the h
166 Modeling indicated steric proximity of the autolysis loop and the activation peptide in trypsinogen
167 f fXa that 1) contained substitutions in the autolysis loop and the heparin binding exosite, 2) lacke
168 n additional cleavage site at Leu-148 in the autolysis loop and the lack of the conserved Cys-139-Cys
169 esults suggest that Arg143 and Lys147 of the autolysis loop are recognition sites for FX independent
170 arkable feature of the structure is that the autolysis loop assumes a helical conformation enabling W
171 We found that mesotrypsin cleaved in the autolysis loop by CTRC exhibited catalytic impairment on
172 croM), IXaE245V 225 microM (240 microM), and autolysis loop cleaved IXaE245V 330 microM (350 microM).
174 indicate that CTRC-mediated cleavage of the autolysis loop in mesotrypsin decreases protease activit
175 bition of autoactivation via cleavage of the autolysis loop is the dominant mechanism that can mitiga
176 e autolysis loop; and (d) proteolysis in the autolysis loop leads to a loss of catalytic efficiency w
177 ptide in trypsinogen, suggesting the cleaved autolysis loop may directly interfere with activation.
178 These results suggest that Arg(150) of the autolysis loop may specifically interact with the activa
181 zed that differences in the structure of the autolysis loop of coagulation proteases (residues 143-15
182 s suggest that structural differences in the autolysis loop of coagulation proteases play a key role
183 ge at Arg-318-Ser-319 in the protease domain autolysis loop of factor IXa results in its diminished b
185 Previously, we identified Arg(150) on the autolysis loop of FXa as a candidate residue that may sp
186 ts demonstrate that basic amino acids in the autolysis loop of fXIa are important determinants of ser
187 rg318-Ser319[150-151] in the protease domain autolysis loop of IXaE245V with a concomitant loss of co
188 aved the Phe-150-Gly-151 peptide bond in the autolysis loop of T8 and T9 and inhibited autoactivation
189 g-144, Lys-145, Arg-147, and Lys-149) in the autolysis loop of the coagulation protease factor XIa (f
190 ymotrypsin that attacks W468 in the flexible autolysis loop of the protease domain in the open but no
192 shown that deletion of nine residues in the autolysis loop of thrombin produces a mutant with an ant
194 6A, 311A, 312A, and 314A) suggested that the autolysis loop provides for up to 15-fold discrimination
195 sumes an unprecedented conformation with the autolysis loop shifted 20 Angstroms away from its canoni
197 Phe137 in euphauserase, localized in loop D (autolysis loop), is highly exposed on the surface of the
199 tion of rTAP with the P2-binding pocket, the autolysis loop, and the Na(+)-binding loop is primarily
201 ected regions include segments of ABE-I, the autolysis loop, the edge of the active site region, and
202 ins are post-translationally sulfated in the autolysis loop, we also assessed the effect of this modi
203 mbined with deletion of nine residues in the autolysis loop, which by itself shifts the specificity o
205 .26 nM); IXaE245V, 2.5 microM (1.35 nM); and autolysis loop-cleaved IXaE245V, 15.6 microM (14.3 nM).
211 ately 3-fold and prevents proteolysis in the autolysis loop; and (d) proteolysis in the autolysis loo
213 The zymogen positioning of both the 180s and autolysis loops are synergistic structural elements that
219 lysis of a calpain substrate alpha-spectrin, autolysis of activated calpain, and reduction of cell da
220 ish fillets was carried out by assessment of autolysis of cells using a cytosolic enzyme lactate dehy
223 nactivation of arlRS does not play a role in autolysis of methicillin-resistant S. aureus (MRSA) stra
224 by crystallography and NMR spectra, prevents autolysis of MMP-12 and allows us to determine its NMR s
226 during high pressure homogenization-induced autolysis of Saccharomyces bayanus wine yeasts, treated
227 e importance of mgrA and sarA in controlling autolysis of Staphylococcus aureus, with MgrA and SarA b
228 ntration was greater than 40 microM, whereas autolysis of the 30-kDa subunit did not occur until the
230 has been suggested to play a pivotal role in autolysis of the parasitic cell wall of Coccidioides imm
231 proteolytic fragments (including those from autolysis of the protease) can be severe, due to high pr
232 strated that NEG can be generated during the autolysis of the yeast used in the preparation of the ye
234 the beta-lactam resistance, growth, and cell autolysis of wild-type strain ATCC 9790 and resistant st
236 Establishing the mechanisms regulating the autolysis of xylem tracheary elements (TEs) is important
237 its inactive form, intermolecular cleavage (autolysis) of AtMCP2d could also occur under our assay c
239 ly has been hypothesized to be released upon autolysis or, alternatively, via a nonautolytic mechanis
240 ly has been hypothesized to be released upon autolysis or, alternatively, via a nonautolytic mechanis
241 ent were observed within the first 60 min of autolysis (p>0.05), but subsequently increased up to 150
242 ctionality (via delta-lysin production), and autolysis phenotypes were assessed in MRSA isolates from
245 of the catalytically inactive 43-kDa MT1-MMP autolysis product and decline in the TIMP-2 levels in co
246 hat 3,3'-diindolylmethane (DIM), a vegetable autolysis product, promoted Fas-mediated apoptosis of ch
249 pression did not correlate directly with the autolysis profiles of single mgrA and sarA mutants.
250 XCP1 could be involved in tracheary element autolysis, promoter activity and localization of XCP1 we
255 mutants in many aspects including increased autolysis, reduced levels of surface-assembled tfp and d
256 g the most profoundly upregulated genes were autolysis-related genes and those that encode bacterioci
257 two TEV protease mutants, inactive C151A and autolysis-resistant S219D, have now been solved at 2.2-
258 factor regulatory genes, agr and sar, affect autolysis, resulting in decreased and increased autolysi
259 completely inhibited cell wall turnover and autolysis, resulting in the accumulation of cell wall ma
260 he design of an enzyme variant stabilized to autolysis should further the structural and mechanistic
263 g the herpesvirus proteases in possessing an autolysis site in the dimer interface, which removes the
267 se determined that blocking all four primary autolysis sites yielded a cleavage-resistant PR which wa
268 The fact that PQS levels correlated with autolysis suggests a fine balance in natural populations
270 rations (eg, thicker cell walls and abnormal autolysis) that are typical of in vivo VISA mutants.
271 , Pseudomonas aeruginosa is shown to control autolysis through the production of HQNO, a quorum-sensi
278 pylori uses genetically programmed bacterial autolysis to release urease and other cytoplasmic protei
281 Neisseria gonorrhoeae is prone to undergo autolysis under many conditions not conducive to growth.
282 grA is a pleiotropic regulator that controls autolysis, virulence, and efflux pump activity in Staphy
284 ivity suggested that the observed incomplete autolysis was due to the ability of LLL to inhibit TE cy
290 biosynthesis, and in one suppressed mutant, autolysis was restored by addition of synthetic PQS.
292 Ser 4 His to stabilize the protease against autolysis) was determined to 2.0 A resolution in a new s
297 th, we examined the role of Gcp in bacterial autolysis, which is an important biological process for
299 EASE1 (XCP1) and XCP2, participated in micro-autolysis within the intact central vacuole before mega-
300 ons did result in a significant reduction of autolysis without altering calpain proteolytic activity.