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1 n is not the cause of their being blocked in spore formation.
2 k1-ts diploids failed to undergo meiosis and spore formation.
3 H, ytrI, ytvI and yunB) exhibited defects in spore formation.
4 d-type for most vegetative functions and for spore formation.
5 he time and location of SpoIIIE synthesis on spore formation.
6 s(4)P 5-kinase, Mss4p, also is essential for spore formation.
7 (MAPK) in budding yeast that is required for spore formation.
8 lipase D (PLD), is essential for meiosis and spore formation.
9  grew slowly and exhibited severely impaired spore formation.
10 ate vegetative growth, swarming and glycerol spore formation.
11  hypersensitive to caffeine and defective in spore formation.
12 e expression that is essential for efficient spore formation.
13 atase 1 interacting protein, is required for spore formation.
14 in1p, plays important roles in mating and in spore formation.
15 the meiotic plaque and is thus essential for spore formation.
16 tilis, a developmental program distinct from spore formation.
17 so-called meiotic plaque, a prerequisite for spore formation.
18 d formation of aerial hyphae, and a block in spore formation.
19 s required for chromosome segregation during spore formation.
20 n5-21, was isolated as a mutant defective in spore formation.
21 surface but had not commenced the process of spore formation.
22  prospore membrane, a prerequisite event for spore formation.
23 re returning to the nuclear periphery during spore formation.
24  (whiG, whiH and whiB), which are blocked in spore formation.
25 s2-Cdc10 complex is required for meiosis and spore formation.
26 uclear divisions and coordinates meiosis and spore formation.
27 cells are indeed defective in both stalk and spore formation.
28 which plays an essential role in meiosis and spore formation.
29 tially redundant roles during the process of spore formation.
30 mutant cells were blocked at a late stage of spore formation.
31 B. subtilis toward metabolic dormancy during spore formation.
32 s that had not been previously implicated in spore formation.
33 teins that regulate its activity and control spore formation.
34 high activity form of the MAPK that controls spore formation.
35 pression in the mother cell to ensure proper spore formation.
36 t these proteins regulate multiple stages of spore formation.
37 ntial for class II activity, did not improve spore formation.
38 f spore-specific gray pigment and a delay in spore formation.
39  on identifying small genes activated during spore formation.
40 at controls exit from prophase, meiosis, and spore formation.
41 on of sigma(E) activity is not essential for spore formation.
42 the completion of the nuclear divisions, and spore formation.
43  to feed the community, effectively delaying spore formation.
44 es related to cell growth, cell division and spore formation.
45 ole is directly in germination or perhaps in spore formation.
46 translationally in order to commit a cell to spore formation.
47 efects in meiotic chromosome segregation and spore formation.
48  direct transcription of genes necessary for spore formation.
49 r cell compartments of the sporangium during spore formation.
50 ng development causing dramatic reduction in spore formation.
51  the cell to accumulate resources to support spore formation.
52 xit from pachytene, meiotic progression, and spore formation.
53 icial induction of csfB severely compromised spore formation.
54 rminus (ter) region of the chromosome during spore formation.
55 dergoes a highly distinctive division during spore formation.
56 genes, SSP2 and OSW1, which are required for spore formation.
57 f a four-gene operon that may be involved in spore formation.
58 her than from slower kinetics of meiosis and spore formation.
59 ae that regulates the postmeiotic program of spore formation.
60 enes for roles in chromosome segregation and spore formation.
61 on and indicates a direct role for DdCdk8 in spore formation.
62                Starvation triggers bacterial spore formation, a committed differentiation program tha
63 st highly expressed gene during C. difficile spore formation, a previous study reported that Alr2 has
64  oscillations in the direction of growth and spore formation along a thin glass tube (race tube).
65 l mutant of SM101 showed decreased levels of spore formation, along with lower levels of CPE producti
66               We found that both meiosis and spore formation also require the phosphatidylinositol (P
67                                       During spore formation an asymmetric division occurs, yielding
68  In addition, the htrA mutant showed reduced spore formation and adherence to colonic cells.
69 y hydroxyurea resulted in a 90% reduction in spore formation and decreased the germination viability
70 ses cells to exhibit substantially decreased spore formation and diminished ability to aggregate.
71 yloid fibrils called rodlets that facilitate spore formation and dispersal.
72      Cells deleted for fin are defective for spore formation and exhibit increased levels of sigma(F)
73 ed that SpoIIQ processing is dispensable for spore formation and for activation of late forespore and
74 onmental and physiological conditions during spore formation and for modeling the inhalation and disp
75  findings contribute to our understanding of spore formation and function and will be useful in the d
76 g of the mechanisms controlling C. difficile spore formation and germination and describes strategies
77                                              Spore formation and germination are essential for the ba
78 tivity by changes in intracellular pH during spore formation and germination in Bacillus species.
79 and release of dipicolinic acid (DPA) during spore formation and germination.
80               The other role is essential to spore formation and is illustrated by mutations of SpoIV
81 hannel cause constitutive germination during spore formation and membrane depolarization in vegetativ
82 called CotE assembles into the coat early in spore formation and plays a morphogenetic role in the as
83 80p coordinately controls genes that mediate spore formation and progression through the two meiotic
84  with nutrient gradients may allow efficient spore formation and spore dispersal in natural environme
85 ical for correct localization of BclB during spore formation and that the N-terminal domains of the B
86      Mutation of SEC1, SEC4, or SEC8 blocked spore formation, and electron microscopic analysis of th
87 he discovery of a basidiomycete gene shaping spore formation, and it may facilitate new research on f
88 wn molecular manifestation of the process of spore formation, and its discovery provides insight into
89  and SpoVD) with various roles in growth and spore formation, and their specific links to beta-lactam
90 enesis, the molecular mechanisms controlling spore formation are not well understood.
91 ory pathways by which C. difficile initiates spore formation are poorly understood.
92 n the stationary phase and gave rise to 3.2% spore formation as opposed to 100% attained with DZF1.
93                        TasA is made early in spore formation, as cells enter stationary phase, and is
94 cytosis, aberrant chemotaxis, and diminished spore formation, associated with altered expression of g
95 to production of Cho and Ptd-butanol, blocks spore formation at concentrations where the inert isomer
96                                       During spore formation, Bacillus subtilis divides asymmetricall
97  activity of Sec14p was sufficient to impair spore formation but not meiosis.
98              Mutation of csgA did not affect spore formation but produced a subtle defect in the abil
99 rotein (MAP) kinase plays a critical role in spore formation, but the proteins that interact with Smk
100                                              Spore formation by Bacillus subtilis is a primitive form
101                                              Spore formation by Bacillus subtilis is governed by glob
102                                              Spore formation by Bacillus subtilis takes place in a sp
103  and that B. subtilis delays a commitment to spore formation by cannibalizing its siblings.
104                                              Spore formation by Clostridium difficile is a significan
105 e that MecA downregulates eps expression and spore formation by directly interacting with Spo0A.
106 t limitation but delay becoming committed to spore formation by killing nonsporulating siblings and f
107                                              Spore formation by the bacterium Bacillus subtilis has l
108                                              Spore formation by the bacterium Bacillus subtilis is an
109 , a circadian rhythm of conidiation (asexual spore formation) can be seen on the surface of agar medi
110 clear visualization of circadianly regulated spore formation (conidial banding), has remained an inte
111 4-kinase, suppressed the sec14-1 meiosis and spore formation defects; conversely, pik1-ts diploids fa
112 but later stages (chromosome segregation and spore formation) did not, suggesting that Snf1 controls
113 some segregation, commitment to meiosis, and spore formation, do not occur.
114 he DdCdk8 protein plays an important role in spore formation during late development.
115 or sigma(G) ordinarily becomes active during spore formation exclusively in the prespore upon complet
116 is concluded that SpoIIIE is required during spore formation for chromosome separation as well as for
117                   However, as cells initiate spore formation, fusions containing the inhibitory domai
118 ces in the environment and were enriched for spore-formation genes.
119 differences relative to Bacillus spp., where spore formation has been more extensively studied.
120 se results indicate that SpoVT levels during spore formation have a major impact on the germination a
121 developmental pathway, YnzD and YisI inhibit spore formation if over-expressed, while a chromosomal d
122 le progression, meiotic differentiation, and spore formation in a highly coordinated manner.
123 ptional regulators governing the pathway for spore formation in aerial hyphae.
124 c gene expression during the early stages of spore formation in B. subtilis are discussed.
125                                       During spore formation in Bacillus subtilis a transenvelope com
126                                Initiation of spore formation in Bacillus subtilis appears to depend o
127                                              Spore formation in Bacillus subtilis involves a switch i
128                                              Spore formation in Bacillus subtilis involves the format
129                                              Spore formation in Bacillus subtilis is characterized by
130                        During the process of spore formation in Bacillus subtilis many membrane prote
131    Following asymmetric cell division during spore formation in Bacillus subtilis, a forespore expres
132                      Early in the process of spore formation in Bacillus subtilis, asymmetric cell di
133                   During the early stages of spore formation in Bacillus subtilis, asymmetric divisio
134                        During the process of spore formation in Bacillus subtilis, many membrane prot
135                                       During spore formation in Bacillus subtilis, sigma(E)-directed
136 amino-acid polypeptide that is essential for spore formation in Bacillus subtilis.
137  fission during the morphological process of spore formation in Bacillus subtilis.
138 l regulatory networks determine cell fate is spore formation in Bacillus subtilis.
139  apparent competitive dominance hierarchy of spore formation in chimera is partly due to a fixed stra
140                            We speculate that spore formation in Epulopiscium-like symbionts may be im
141                                              Spore formation in Saccharomyces cerevisiae involves the
142                                              Spore formation in Saccharomyces cerevisiae requires the
143                                              Spore formation in Saccharomyces cerevisiae requires the
144   (2020) demonstrates that c-di-GMP controls spore formation in Streptomyces venezuelae through seque
145 f HtrC did not stabilize YpeB or SleB during spore formation in the absence of the partner protein, i
146 st-cytokinetic DNA segregation occurs during spore formation in the bacterium Bacillus subtilis, wher
147 on of the polar septum during the process of spore formation in the bacterium Bacillus subtilis.
148 ts highlight that diverse mechanisms control spore formation in the Firmicutes.
149                                              Spore formation in the yeast Saccharomyces cerevisiae de
150 ired forespore gene expression and efficient spore formation in vivo.
151                                              Spore formation in yeast is an unusual form of cell divi
152                                              Spore formation in yeast may be a useful model for under
153          Inactivation of P2(spoIIIA) blocked spore formation, indicating that P2(spoIIIA) is essentia
154 n bacterial physiology including biofilm and spore formation involve signaling by the cyclic dinucleo
155        These results demonstrate that diatom spore formation is an effective defense strategy against
156                                              Spore formation is an extreme response of some bacteria
157 ating feature of biofilm formation, and that spore formation is coupled to the formation of an archit
158                        Although C. difficile spore formation is essential for disease transmission, t
159 s-specific SASPs vary depending upon whether spore formation is induced by starvation inside cell agg
160                                              Spore formation is likely to be a critical factor in the
161                                  Critical to spore formation is the action of a series of sporulation
162        This pleiotropic linkage of stalk and spore formation limits the potential for cheating in D.
163 is, restored sporulation gene expression and spore formation nearly to wild-type levels.
164 ers have shown that the phase angle at which spore formation occurs depends on the entrainment period
165          A key step in the Bacillus subtilis spore formation pathway is the engulfment of the forespo
166 stage of engulfment in the Bacillus subtilis spore formation pathway, the larger mother cell engulfs
167  of parameters) was then used to investigate spore formation patterns under constant conditions and r
168 minal domain of Ime2, exacerbated the smk1-2 spore formation phenotype and prevented cyr1 mutations f
169  development and growth and is important for spore formation, possibly by providing dNTPs for mitocho
170 sults in partial suppression of the block to spore formation resulting from the loss of the prestalk
171  DNA transcription and DNA protection during spore formation, spore dormancy, and spore germination a
172 th, whereas epl2 was mainly expressed during spore formation, suggesting that the respective proteins
173             Such mutations confer a block to spore formation that is circumvented by addition of a mu
174 The mutations of interest confer a defect in spore formation that is dependent upon a gene required f
175 in in sporulating diploid cells also blocked spore formation, underscoring the importance of this cha
176                                   In asexual spore formation, velB deletion strains show reduced numb
177 aits, e.g.: spore size versus viability; and spore-formation (via aggregation) versus staying vegetat
178 med heat-resistant, phase-refractile spores, spore formation was blocked in the sigF- and sigG-null m
179 , surface-associated communities (biofilms), spore formation was discovered to have heretofore unsusp
180 ller and more-crowded fruiting bodies, while spore formation was normal.
181 the centre than at the edge of the spot, and spore formation was significantly reduced.
182 uring sexual differentiation, at the time of spore formation, was enriched in yeast-specific genes, i
183 in new insights into meiotic development and spore formation, we followed differential expression of
184 ine that these populations, while capable of spore-formation, were also likely replicating in situ in
185   We propose that ridges are formed early in spore formation, when the spore volume likely decreases,
186 btilis chooses between matrix production and spore formation, which are both controlled by the regula

 
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