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1 NRKs), an extraordinarily large number for a unicellular organism.
2 unction is crucial for pathogenesis in these unicellular organisms.
3 ther protein leads to hyper-recombination in unicellular organisms.
4 nguishable from the scaling relationship for unicellular organisms.
5 st also be synchronized during the growth of unicellular organisms.
6  there been any evidence for its presence in unicellular organisms.
7 ely little is known about snRNA synthesis in unicellular organisms.
8 genetic machinery similar to those of extant unicellular organisms.
9 nd nuclear processes in multicellular and/or unicellular organisms.
10 d cell-cell communication that are absent in unicellular organisms.
11 y observed in living systems from animals to unicellular organisms.
12 s, form, and function with biofilms of other unicellular organisms.
13  as a stress- or quorum-sensing mechanism in unicellular organisms.
14 s that recall the more competitive nature of unicellular organisms.
15 utionary processes as asexually reproducing, unicellular organisms.
16 rinsic to all cellular life forms, including unicellular organisms.
17 lay critical adhesive roles in at least some unicellular organisms.
18 ich is among the highest values recorded for unicellular organisms.
19 ive dynamic phenotypic mosaicism in isogenic unicellular organisms.
20 l how this protein affects the physiology of unicellular organisms.
21 ittle about the processes behind invasion by unicellular organisms.
22 tal principles of cell size determination in unicellular organisms.
23 organism for morphogenesis and patterning in unicellular organisms.
24 ge of eukaryotic diversity, especially among unicellular organisms.
25 een the growth rate and the biomass yield in unicellular organisms.
26 ifying potential drug targets, especially in unicellular organisms.
27 rgy buffer in insects, crustaceans, and some unicellular organisms.
28 is a ubiquitous feature of multicellular and unicellular organisms.
29 , is currently limited to cultured cells and unicellular organisms.
30 ound in all sequenced multicellular and many unicellular organisms.
31 c scales and is exhibited by many eukaryotic unicellular organisms.
32 tly accelerated by new genetic resources for unicellular organisms.
33 ll biological phenomenon experienced by many unicellular organisms.
34  means to manipulate swimming populations of unicellular organisms.
35 mammals containing more methylation than the unicellular organisms.
36            As they negotiate their environs, unicellular organisms adjust their swimming in response
37                                         Even unicellular organisms age at a cellular level, demonstra
38 wth and cell division previously observed in unicellular organisms also exists in intact plant tissue
39 ammals, we investigated the possibility that unicellular organisms also respond to viral pathogens by
40 eless, it biases the orientation of swimming unicellular organisms, alters bone cell differentiation,
41 l. reveals the surprising complexity of this unicellular organism and, by inference, of the last comm
42 se alternative routes are vital for numerous unicellular organisms and are of interest for treating h
43 ty gradients to be reduced or absent in some unicellular organisms and attribute this to their high a
44 sed mutation rates and genome instability in unicellular organisms and cell cultures.
45  our understanding of translation comes from unicellular organisms and cultured mammalian cells.
46 s to why programmes of cell suicide exist in unicellular organisms and how they may be benefit such o
47 until now, miRNAs have not been described in unicellular organisms and it has been suggested that the
48 s light on the evolutionary origin of PCD in unicellular organisms and on the cellular strategies emp
49 f all organisms are similar: The lowest (for unicellular organisms and plants) is separated from the
50 te in a process similar to quorum sensing in unicellular organisms and suggest that disruption of thi
51 with the phosphorylation-based repression in unicellular organisms and syncytia.
52                                              Unicellular organisms and their viral pathogens are exce
53 reted by myriad cells in culture and also by unicellular organisms, and their identification in mamma
54               However, clonal populations of unicellular organisms are already naturally diversified
55 mentation during development, communities of unicellular organisms are believed to be devoid of such
56                                              Unicellular organisms are constantly subject to sudden c
57                                              Unicellular organisms are often used as model systems fo
58                                              Unicellular organisms are particularly susceptible to en
59             Symbioses between eukaryotes and unicellular organisms are quite common, with examples co
60  of chromatin condensation during mitosis in unicellular organisms as well as the response of human c
61 in in the regulation of circadian rhythms in unicellular organisms, as well as in neuronal developmen
62    However, the situation is more complex in unicellular organisms bearing few flagella.
63               What would be the advantage of unicellular organisms becoming multicellular?
64                               In contrast to unicellular organisms, biological and technical variatio
65 coideum are social amoebas that propagate as unicellular organisms but aggregate upon starvation and
66 ses are critical not only to the survival of unicellular organisms but also to the normal function of
67       This selection pressure is apparent in unicellular organisms, but is mitigated in higher eukary
68 impact of expression noise on the fitness of unicellular organisms by considering the influence of su
69        We extend this theory to the realm of unicellular organisms by developing mathematical models
70 on of any of these developmental pathways in unicellular organisms by developing techniques for genet
71  genetically encoded cooperative behavior in unicellular organisms can evidently also boost inclusive
72                  Dictyostelium discoideum, a unicellular organism capable of developing into a multic
73 synthesis is dominated by a diverse group of unicellular organisms collectively called microalgae.
74        Cell cycle-dependent morphogenesis of unicellular organisms depends on the spatiotemporal cont
75                Little is known about TPCs in unicellular organisms despite their ancient origins.
76 cterial pathogen, could replicate within the unicellular organism Dictyostelium discoideum.
77       Taken together, we show that even in a unicellular organism, differential gene expression patte
78 s of pathogens have thus far been limited to unicellular organisms (e.g., protozoa and bacteria).
79 logical processes and human pathologies, how unicellular organisms efficiently regulate their locomot
80                     The sequenced genomes of unicellular organisms encode from approximately 25%, for
81 by duplicate genes), in multicellular versus unicellular organisms enhances genomic functional innova
82  previously described strictly in plants and unicellular organisms, entails post-translational excisi
83                                        While unicellular organisms exhibit individuality and independ
84 o cilia, some cells, including those of many unicellular organisms, exhibit many cilia.
85 els to consider the adaptive trajectories of unicellular organisms exposed to periodic bouts of abiot
86              The accessible genetics of this unicellular organism facilitate structure-function analy
87 l advantages, such as priming populations of unicellular organisms for future environmental stresses.
88 y resemble metazoan structures than those of unicellular organisms from other suprakingdoms.
89     Genes encoding for HLH proteins arose in unicellular organisms >600 million years ago and then du
90  organisms and in the extracellular fluid of unicellular organisms, has been shown to function as a s
91 ins of shelterin are unclear, partly because unicellular organisms have distinct telomeric proteins.
92         Genes of malaria parasites and other unicellular organisms have larger exons with fewer and s
93           Could the transient aggregation of unicellular organisms have paved the way for the evoluti
94 ome healing, has been extensively studied in unicellular organisms; however, its role in the mammalia
95                                              Unicellular organisms, human cells and mice have provide
96 propriately distinguishing multicellular and unicellular organisms; (ii) eukaryotic sex is extremely
97                            Although studying unicellular organisms in laboratory conditions may give
98 ural information is particularly lacking for unicellular organisms in the Opisthokonta clade, leaving
99                                           In unicellular organisms, initiation is the rate-limiting s
100 her we consider the division of the simplest unicellular organisms into two daughter cells or the gen
101   The discovery of a lamin-like protein in a unicellular organism is not only intriguing in light of
102       The transport of water into and out of unicellular organisms is a seemingly simple process in w
103 Here we show that one mode of IL toxicity on unicellular organisms is driven by swelling of the cell
104 rnative splicing is active and functional in unicellular organisms is less understood.
105            Although it was already active in unicellular organisms, its role became universally impor
106                                         Many unicellular organisms live in multicellular communities
107                                              Unicellular organisms live under diverse stressful condi
108 s fundamental to multicellular organisms and unicellular organisms living in a microbiome.
109 a minimal model to understand how Euplotes-a unicellular organism-manipulates its membrane potential
110  the smallest insects, comparable in size to unicellular organisms, modifications arise not only at t
111 thogens and is the major means by which many unicellular organisms obtain nutrients.
112                                  Motility of unicellular organisms occurred early in evolution with t
113  of the family Volvocaceae (Chlorophyta) and unicellular organisms of the Volvocales, including Chlam
114 ncluding chemotaxis toward and engulfment of unicellular organisms or cell debris.
115 ate core biological processes established in unicellular organisms or suppress differentiation pathwa
116 is known about the function of such genes in unicellular organisms or the evolutionary process by whi
117     We define the cellular architecture of a unicellular organism, or of a cell type from a multicell
118 is universal in the sense that it applies to unicellular organisms, plants and animals.
119                                 Whereas many unicellular organisms possess a small number of DRPs, ex
120                 Its discovery, therefore, in unicellular organisms presents compelling questions.
121 tence of two extremes of motor response in a unicellular organism prompts unique investigations of fa
122 ntains the cell wall and the fact that, in a unicellular organism, relevant variables become intertwi
123                                 We find that unicellular organisms require a smaller degree of contro
124                                              Unicellular organisms respond to the presence of DNA les
125                             Trypanosomatids, unicellular organisms responsible for several global dis
126                      When conditions change, unicellular organisms rewire their metabolism to sustain
127 osaccharomyces pombe [1-3], but unlike other unicellular organisms, S. pombe has two structurally dis
128                                           In unicellular organisms, sexual reproduction typically beg
129 ructures were previously available only from unicellular organisms, speculations regarding the molecu
130                                  However, in unicellular organisms such as budding yeast, they are no
131                                       Motile unicellular organisms such as E. coli exhibit rudimentar
132 tabolism provides an avenue for fermentable, unicellular organisms such as Saccharomyces cerevisiae t
133                    Motile cilia are found on unicellular organisms such as the green alga Chlamydomon
134                                  However, in unicellular organisms such as yeast, this process has ra
135 enging for every organism, in particular for unicellular organisms, such as bacteria.
136                       Populations of certain unicellular organisms, such as suspensions of yeast in n
137                                           In unicellular organisms, such as the budding yeast Sacchar
138  from a single cell, can evolve rapidly in a unicellular organism that has never had a multicellular
139                        Paramecium is a large unicellular organism that swims in fresh water using cil
140 e locus remains a practice mostly limited to unicellular organisms that afford simple targeting metho
141                           Choanoflagellates, unicellular organisms that are closely related to metazo
142 gae constitute a diverse group of eukaryotic unicellular organisms that are of interest for pure and
143 of sexual reproduction cannot be realized in unicellular organisms that reproduce both sexually and a
144                                 Bacteria are unicellular organisms that typically lack membrane-bound
145             Flagellar-driven motility grants unicellular organisms the ability to gather more food an
146                                           In unicellular organisms the most used codons are optimally
147 roduced living hybrid materials by giving to unicellular organisms the nutrient to grow.
148                         In contrast to other unicellular organisms, the slime mold Physarum polycepha
149  separate the independent evolution of these unicellular organisms, they share remarkable phenotypic
150 al and local synonymous codon biases in many unicellular organisms, this explanation cannot adequatel
151             However, diverse eukaryotes from unicellular organisms, through echinoderms to vertebrate
152 end, receive, and process information allows unicellular organisms to act as multicellular entities a
153 nctionally and evolutionarily conserved from unicellular organisms to human.
154           We identify that ADF/cofilins from unicellular organisms to humans share a conserved activi
155 iated disorders in short-lived species, from unicellular organisms to laboratory mice and rats.
156 in metalation and sketches its transfer from unicellular organisms to land plants as complex multicel
157                               Evolution from unicellular organisms to larger multicellular ones requi
158 en described in diverse eukaryotes, spanning unicellular organisms to metazoa.
159 ompany the transition from motile totipotent unicellular organisms to multicellular organisms having
160                                   Thus, like unicellular organisms, tumor cells evade therapeutic pre
161                                              Unicellular organisms use a variety of mechanisms to co-
162                                              Unicellular organisms use gradient sensing to move (chem
163                         Genes conserved with unicellular organisms were strongly up-regulated, wherea
164                     D. discoideum grows as a unicellular organism when food is abundant and switches
165         Here, we focus on viruses of aquatic unicellular organisms, which exhibit the greatest known
166             The existence of TOR homologs in unicellular organisms whose growth is affected by enviro
167 lls grown in monolayer, as well as against a unicellular organism with no propensity for intracellula
168 f observations: (i) the rarity of introns in unicellular organisms with large population sizes, and t
169  appeared very early in evolution to provide unicellular organisms with motility in water.
170                            In contrast, many unicellular organisms with small nuclear genomes seem to
171 tensive regulated exocytic systems among all unicellular organisms, yet the basis of protein traffick

 
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