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1  average, half of the follicle cells in each ovariole.
2 em to conclude that there are 15-16 FSCs per ovariole.
3 thelial sheath cells, the muscle surrounding ovarioles.
4 d allows the formation of normally patterned ovarioles.
5 t the conclusion that there are two FSCs per ovariole, a recent study used a novel clonal marking sys
6 ired for FSC daughters to migrate across the ovariole and on occasion to replace the opposite stem ce
7 cause the formation of a mixture of agametic ovarioles and cystic germ cell tumors.
8 a) has resulted in queens with 200-360 total ovarioles and workers with usually 20 or less.
9                                              Ovarioles are the functional unit of the female insect r
10  impact the rate of egg production, new, non-ovariole factors were also identified.
11                                              Ovariole formation begins during larval development with
12                                              Ovarioles from Dm ime4 mutants have fused egg chambers w
13            Cytological analysis reveals that ovarioles from Hmr mutant females express markers that d
14        We detected micrometastases in 15% of ovarioles from wild type host females 10 days after tran
15      We detected micrometastases in 15.8% of ovarioles from wild type host females 12 days after tran
16 o somatic follicle stem cells (FSCs) in each ovariole give rise to all polar cells, stalk cells, and
17 y the Polovodova combined with Christopher's ovariole growth methods.
18 ingle cells, cell monolayers, and Drosophila ovarioles highlights the NMBS's ability to dynamically t
19                                         Each ovariole in the Drosophila ovary contains two germline s
20 es with a highly disorganized arrangement of ovarioles in comparison to wild-type females.
21 tion was due to a reduction in the number of ovarioles in D. sechellia relative to its sister species
22 ssed at the extreme apical end of Drosophila ovarioles in terminal filament cells and a newly identif
23                                              Ovarioles in the adult ovary are enveloped by an ECM she
24 e niche increases the functional lifetime of ovarioles in vivo.
25                             Heritability for ovariole number (adjusted for body size), derived from i
26 an cell number that regulate D. melanogaster ovariole number also regulate ovariole number in Hawaiia
27                    In addition, variation in ovariole number among workers relates to worker sensory
28                       Estimates of VG/VM for ovariole number and body size were both approximately 1.
29 stigated the genetic basis for plasticity of ovariole number and body size, as well the genetic basis
30 Ls in four yeast concentrations and measured ovariole number and body size.
31 n was evaluated for two quantitative traits, ovariole number and body size.
32 atory sub-networks regulating one or both of ovariole number and egg laying.
33              The genetic correlation between ovariole number and thorax length was positive, but the
34    While previously mapped factors affecting ovariole number appear to impact the rate of egg product
35    Increasing TFC size contributed to higher ovariole number by increasing TF number.
36               Previous studies proposed that ovariole number correlated with oviposition substrate [2
37 gy on the developmental processes underlying ovariole number evolution among Hawaiian Drosophila, a l
38                             Analysis of mean ovariole number for these generations showed that only a
39                                Mutations for ovariole number have a quadratic relationship with compe
40             Convergent changes in Drosophila ovariole number have evolved independently within and be
41                                              Ovariole number in Drosophila is species-specific, highl
42                        We induced changes in ovariole number in Drosophila melanogaster by geneticall
43 ed regulator of animal organ size, regulates ovariole number in Drosophila melanogaster.
44 . melanogaster ovariole number also regulate ovariole number in Hawaiian drosophilids.
45                        Genetic variation for ovariole number in the flower-breeding Drosophila hibisc
46                                              Ovariole number is an important determinant of fecundity
47                                              Ovariole number is related to evolutionary fitness, whic
48  genetic changes underlying species-specific ovariole number may alter the total number of TFCs avail
49 t in these Drosophila lineages, reduction in ovariole number occurs primarily through variations in o
50                                          The ovariole number of foragers was correlated with the suga
51       Recent work has provided insights into ovariole number regulation in Drosophila melanogaster.
52 etic and cellular basis for determination of ovariole number remains unknown.
53 tively large within-population variation for ovariole number suggest that substantial microhabitat va
54  independently evolved a significantly lower ovariole number than the D. melanogaster Oregon R strain
55 major groups of Hawaiian Drosophila, wherein ovariole number variation is best explained by adaptatio
56 y, increasing total TFC number led to higher ovariole number via an increase in TF number.
57 ontrast, temperature-dependent plasticity in ovariole number was due to changes in cell-cell sorting
58                              The variance of ovariole number within sites (sigma2(within) = 2.039) wa
59  and used to identify 34 candidate genes for ovariole number, a quantitative trait, in Drosophila mel
60 ophila melanogaster, ovary size, measured as ovariole number, and body size, measured as thorax lengt
61 of recombinant inbred lines were assayed for ovariole number, and QTL analyses for this trait identif
62 dependent evolution of a reproductive trait, ovariole number, has resulted from changes in distinct d
63  To study the genetic architecture of worker ovariole number, we performed a series of crosses betwee
64 pe, terminal filament (TF) cells, determines ovariole number.
65 rstand the cellular basis for the changes in ovariole number.
66 a target of evolutionary change that affects ovariole number.
67 ized and European bees that differ in worker ovariole number.
68 llometric relationship between body size and ovariole number.
69 yze here a trait closely related to fitness, ovariole number.
70 e-associated traits, including body size and ovariole number.
71 stinct developmental processes that regulate ovariole number: establishment of total TFC number, and
72 ogenetic modeling to an expanded sampling of ovariole numbers and substrate types and show support fo
73  discuss how the phenotype of extreme worker ovariole numbers and the underlying genetic factors we i
74 ive radiation wherein the highest and lowest ovariole numbers of the family have evolved within 25 mi
75 transgressive worker phenotypes with extreme ovariole numbers that were sensitive to the social envir
76          Thus, evolution can produce similar ovariole numbers through distinct developmental mechanis
77 The germarium, a structure at the tip of the ovariole of a Drosophila ovary, contains two follicle st
78 tifying micrometastasis formation within the ovarioles of adult hosts after transplantation and deter
79                               The individual ovarioles of the Drosophila ovary each contain about two
80  susceptibility to I. fumosorosea, number of ovarioles, or ovipostioning were seen between any of the
81 ific mapping between Drosophila sechellia (8 ovarioles/ovary) and D. simulans (15 ovarioles/ovary) id
82 llia (8 ovarioles/ovary) and D. simulans (15 ovarioles/ovary) identified a major QTL on chromosome 3
83 insect reproductive organs and the number of ovarioles per ovary strongly influences egg-laying rate
84 ition, Cct1 mutants display a novel branched ovariole phenotype, demonstrating a requirement for this
85 g (Hh) at the extreme anterior of Drosophila ovarioles suggests that it might provide an asymmetric c
86 acity is largely determined by the number of ovarioles, the egg-producing subunits of the ovary [e.g.
87 that there are typically two active FSCs per ovariole, though they are consistent with up to four FSC
88                               The Drosophila ovariole tip produces new ovarian follicles on a 12-hour
89 oducing structures of insect ovaries, called ovarioles, to deduce systems-level gene regulatory relat
90 ce a range of phenotypes, including agametic ovarioles, tumorous egg chambers, and late stage oogenic
91                                The number of ovarioles varies between and within species.
92 one site) that differed by an average of 4.6 ovarioles were used to generate F1, F2 and backcross gen
93 ries are composed of functional units called ovarioles, which contain sequentially developing egg cha
94 ted by stem cell loss, we studied Drosophila ovarioles, which maintain two to three germ-line stem ce
95 lls in the follicle cell layer of developing ovarioles with down-regulated expression of the major mi