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1 needed for certain vulval precursor cells to divide asymmetrically.
2 y described genes, mid1 and pom1, frequently divide asymmetrically.
3 al guard cells requires the lineage cells to divide asymmetrically.
4  with a defect in leukocyte adhesion fail to divide asymmetrically.
5 heir healthy counterparts that predominantly divide asymmetrically.
6 spindle's position is important for cells to divide asymmetrically.
7                               This bacterium divides asymmetrically.
8 iding symmetrically and in sporulating cells dividing asymmetrically.
9 el for exploring differential fate in a cell dividing asymmetrically.
10 del to dissect spindle orientation in a cell dividing asymmetrically.
11 legans, this decision is linked to how cells divide asymmetrically [1, 2].
12                                           To divide asymmetrically, a cell must position the mitotic
13 iche at the extreme periphery of the CMZ and divide asymmetrically along a radial (peripheral to cent
14 cultures, some retinal neuroepithelial cells divide asymmetrically and distribute Numb to only one of
15 -polar state, these spores develop polarity, divide asymmetrically and establish the first axis of sy
16 ophila development, neural stem cells (NSCs) divide asymmetrically and generate intermediate progenit
17                                Budding yeast divide asymmetrically and HO is expressed only in mother
18        In the Drosophila embryo, neuroblasts divide asymmetrically and in a stem cell fashion.
19                                Budding yeast divide asymmetrically and must therefore align the posit
20 ss normal and cancer stem cell markers, they divide asymmetrically and they cycle slowly.
21 ding embryos may determine which blastomeres divide asymmetrically and which do not.
22         The bacterium Caulobacter crescentus divides asymmetrically as part of its normal life cycle.
23   Drosophila male germline stem cells (GSCs) divide asymmetrically, balancing self-renewal and differ
24  of Inscuteable (Pins)-G alpha i crescent to divide asymmetrically, but the link between cortical pol
25 nd neuroepithelial cells could be capable of dividing asymmetrically, but in neuroepithelial cells ot
26                       Drosophila neuroblasts divide asymmetrically by aligning their mitotic spindle
27                                   Many cells divide asymmetrically by generating two different cell e
28 stem cells (GSCs) in Drosophila melanogaster divide asymmetrically by orienting the mitotic spindle w
29   However, for a given noise in we find that dividing asymmetrically can enhance the population growt
30                        Mycobacteria grow and divide asymmetrically, creating variability in growth po
31               We found that sds23Delta cells divide asymmetrically due to misplaced CAR assembly, fol
32         The polarities of several cells that divide asymmetrically during Caenorhabditis elegans deve
33 erstanding of how cells become polarized and divide asymmetrically during development.
34      Cell polarity is essential for cells to divide asymmetrically, form spatially restricted subcell
35                       Caulobacter crescentus divides asymmetrically generating two distinct cell type
36  basal epidermal cells use their polarity to divide asymmetrically, generating a committed suprabasal
37                            Sporulating cells divide asymmetrically, generating a large mother cell an
38                          Budding yeast cells divide asymmetrically, giving rise to a mother and its d
39                    Mycobacteria elongate and divide asymmetrically, giving rise to significant variat
40                    Stem and progenitor cells divide asymmetrically, giving rise to two daughter cells
41   The budding yeast Saccharomyces cerevisiae divides asymmetrically, giving rise to a mother cell and
42  anchors chromosomes to the mitotic spindle, divide asymmetrically in a single postmeiotic lineage.
43 ees to align with the apical-basal axis, and divide asymmetrically in a stem cell-like fashion.
44                              Many stem cells divide asymmetrically in order to balance self-renewal w
45 e show that murine memory CD8(+) T cells can divide asymmetrically in response to secondary encounter
46         At the start of gastrulation, the ER divides asymmetrically into a population of asynchronous
47                       Caulobacter crescentus divides asymmetrically into a swarmer cell and a stalked
48                       The Arabidopsis zygote divides asymmetrically into an embryonic apical cell and
49             One of the simplest organisms to divide asymmetrically is the bacterium Caulobacter cresc
50  is challenging, particularly for those that divide asymmetrically, like Saccharomyces cerevisiae, be
51   The budding yeast Saccharomyces cerevisiae divides asymmetrically, like many other cells, to genera
52 an maintain stem identity and the ability to divide asymmetrically, nor show cell-growth defects or u
53 Muller glia, and that each Muller glial cell divides asymmetrically only once to produce an Alcama-ne
54 ologically distinct populations of CSCs that divide asymmetrically or symmetrically in MPeM in vitro
55 icell clones, suggests that some progenitors divide asymmetrically, producing a postmitotic neuron an
56                          Germline stem cells divide asymmetrically, producing a self-renewing stem ce
57 em cells, we have studied female GSCs, which divide asymmetrically, producing another GSC and a cysto
58 uding Drosophila germline stem cells (GSCs), divide asymmetrically, producing one stem cell and one d
59 at damage-induced Escherichia coli filaments divide asymmetrically, producing short daughter cells th
60                                      It also divides asymmetrically, producing a mother and swarmer c
61         The bacterium Caulobacter crescentus divides asymmetrically, producing daughter cells with di
62 IM3 expression leads to a greater percentage dividing asymmetrically rather than symmetrically.
63                                   Stem cells divide asymmetrically, regenerating a parental stem cell
64  In spermatogenesis, each germline stem cell divides asymmetrically, renewing itself and producing a
65 ions of ciprofloxacin the bacterial filament divides asymmetrically repeatedly at the tip.
66    During spore formation, Bacillus subtilis divides asymmetrically, resulting in two cells with diff
67 tarvation and high cell density, B. subtilis divides asymmetrically, resulting in two cells with diff
68                    Neuroblasts in Drosophila divide asymmetrically, sequentially expressing a series
69 ntiating germ cells, GSCs' unique ability to divide asymmetrically serves a critical role of maintain
70                 Saccharomyces cerevisiae can divide asymmetrically so that the mother and daughter ce
71                                           By dividing asymmetrically, stem cells can generate two dau
72                     Two of these progenitors divide asymmetrically such that each produces a two-cell
73                                     The GSCs divide asymmetrically such that one daughter remains in
74                                In cells that divide asymmetrically, such as Saccharomyces cerevisiae,
75                        Epithelial stem cells divide asymmetrically, such that one daughter replenishe
76                                           To divide asymmetrically, the mitotic spindle is moved from
77 ative growth, Saccharomyces cerevisiae cells divide asymmetrically: the mother cell buds to produce a
78              After gastrulation, these cells divide asymmetrically; the smaller rostral daughters exh
79  results indicate that if colonic stem cells divide asymmetrically then colon stem cell niches are ma
80                   Here, we report that CySCs divide asymmetrically through repositioning the mitotic
81 evelopment, the sensory organ precursor cell divides asymmetrically through differential regulation o
82                              Many stem cells divide asymmetrically to balance self-renewal and differ
83            It requires that some blastomeres divide asymmetrically to direct cells to the inside of t
84                                         SSCs divide asymmetrically to either self-renew or produce un
85 hemselves through symmetric divisions and to divide asymmetrically to engender new cells that can pro
86                                    Z1 and Z4 divide asymmetrically to establish the proximal-distal a
87                                   Stem cells divide asymmetrically to generate a stem cell and a diff
88 on the ability of neural progenitor cells to divide asymmetrically to generate daughter cells that ac
89  in the outer optic analage; the neuroblasts divide asymmetrically to generate ganglion mother cells.
90                           Radial progenitors divide asymmetrically to generate neurogenic intermediat
91 al glia, whereas the majority of radial glia divide asymmetrically to generate neurons and radial gli
92 roblasts are stem cell-like progenitors that divide asymmetrically to generate neurons of the adult b
93  somatic gonadal precursor cells, Z1 and Z4, divide asymmetrically to generate one daughter with a pr
94 their progeny, ganglion mother cells (GMCs), divide asymmetrically to generate terminal postmitotic n
95        Many examples are known of cells that divide asymmetrically to give daughter cells of differen
96 phila sensory organ precursors (SOPs), which divide asymmetrically to give rise to epidermal mechanos
97 neural progenitors or neuroblasts (NBs) each divide asymmetrically to produce a larger neuroblast and
98 e as epidermal protuberances (initials) that divide asymmetrically to produce a vacuolate basal cell,
99 cking centrioles and centrosomes, invariably divide asymmetrically to produce cystoblasts that procee
100 osophila ovaries, germline stem cells (GSCs) divide asymmetrically to produce daughter GSCs and cysto
101 glial stem cells of the dorsal telencephalon divide asymmetrically to produce excitatory neurons, but
102                                   Adult SOPs divide asymmetrically to produce IIa and IIb daughter ce
103                       Adult stem cells often divide asymmetrically to produce one self-renewed stem c
104  that rapidly proliferating cancer cells can divide asymmetrically to produce slowly proliferating "G
105 ome copy number is reduced to two, and cells divide asymmetrically to produce the future spore (fores
106                       Drosophila neuroblasts divide asymmetrically to self-renew and generate differe
107          In these regions, neuroblasts (NBs) divide asymmetrically to self-renew and generate differe
108  cell self-renewal and differentiation; they divide asymmetrically to self-renew and generate the neu
109            Mammalian neural progenitor cells divide asymmetrically to self-renew and produce a neuron
110                Drosophila larval neuroblasts divide asymmetrically to self-renew, and are a model sys
111 rahedral initial generate leaf initials that divide asymmetrically to self-replace and to produce dau
112 The aquatic bacterium Caulobacter crescentus divides asymmetrically to a flagellated swarmer cell and
113 elegans somatic gonadal precursor cell (SGP) divides asymmetrically to establish gonad-specific coord
114 a oogenesis starts when a germline stem cell divides asymmetrically to generate a daughter germline s
115 luding the male-specific blast cell, B, that divides asymmetrically to generate a larger anterior dau
116          The somatic gonadal precursor (SGP) divides asymmetrically to generate distal and proximal d
117                 The Drosophila MP2 precursor divides asymmetrically to generate the dMP2/vMP2 interne
118               Early in sporulation, the cell divides asymmetrically to give two sister compartments,
119                  This oligotrophic bacterium divides asymmetrically to produce a motile swarmer cell
120                       Caulobacter crescentus divides asymmetrically to produce a non-replicating swar
121 ical daughter cells, is blocked and the cell divides asymmetrically to produce a small, polar prespor
122 subtilis endospore development the bacterium divides asymmetrically to produce two daughter cells.
123 ain epithelial and apically constrict before dividing asymmetrically to produce neurons.
124 tabolic profile, and retain their ability to divide asymmetrically, which correlates with increased m
125 ynamic spindle repositioning allows CySCs to divide asymmetrically while accommodating the structure
126          To test this, cells were induced to divide asymmetrically with the entire spindle segregated
127 ell self-renewal depends on their ability to divide asymmetrically, with one daughter retaining stem
128 mPar3 prevents radial glial progenitors from dividing asymmetrically yet generates different outcomes
129 c environments, Caulobacter crescentus cells divide asymmetrically, yielding a motile swarmer cell an

 
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