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1 rates the germline during repeated cycles of asexual reproduction.
2 me, proteome, metabolome and host growth and asexual reproduction.
3 tes that rupture during repetitive cycles of asexual reproduction.
4 auses defects in later vegetative growth and asexual reproduction.
5 eleterious recessive mutations on sexual and asexual reproduction.
6 e dormancy, and to switch between sexual and asexual reproduction.
7 ue segmentation and behavior associated with asexual reproduction.
8 of organisms to alternate between sexual and asexual reproduction.
9 being capable of whole-body regeneration and asexual reproduction.
10 OL ACYLTRANSFERASE 3 (DGAT3) promoted fungal asexual reproduction.
11 eby alleviates some of the usual pitfalls of asexual reproduction.
12  members identifies 5 Hox genes required for asexual reproduction.
13 ting type, suggesting a fitness advantage of asexual reproduction.
14 of epigenetic marks in a model propagated by asexual reproduction.
15 e lipids at the infection site during fungal asexual reproduction.
16 obacterium Burkholderia, which controls host asexual reproduction.
17 marily multiplying through a budding type of asexual reproduction.
18  symptomless phase and facilitating Septoria asexual reproduction.
19 ols the transition from vegetative growth to asexual reproduction.
20 tribution of macronuclear chromosomes during asexual reproduction.
21  budding program during subsequent rounds of asexual reproduction.
22 served maintenance of chromosome copy during asexual reproduction.
23 ch Hymenoptera transition between sexual and asexual reproduction.
24 the population from meiotic mutations due to asexual reproduction.
25 th haploid and diploid phases and sexual and asexual reproduction.
26  expresses all genes required for growth and asexual reproduction.
27 tes photosynthetic carbon uptake, growth and asexual reproduction.
28  forces of evolutionary decay that accompany asexual reproduction.
29 ions, population structure and sexual versus asexual reproduction.
30 1 independent transitions between sexual and asexual reproduction.
31 vidence that TE loads decrease rapidly under asexual reproduction.
32 tasis, correspondingly is predicted to favor asexual reproduction.
33 osed by sexual reproduction as compared with asexual reproduction.
34 al framework for analyzing TE dynamics under asexual reproduction.
35 ower than an asexual population because only asexual reproduction allows some overlap of successive a
36 ts found here highlight the need to consider asexual reproduction along with mixed mating in models o
37                                  Selfing and asexual reproduction also may allow reproduction when ci
38 us holocyclic aphids exhibit both sexual and asexual reproduction and alternate among primary and sec
39  spp. is primarily influenced by predominant asexual reproduction and dispersal.
40                 Low dispersal, occurrence of asexual reproduction and geographic discontinuity increa
41  Lack of congruence is caused by polyploidy, asexual reproduction and over-differentiation by taxonom
42 on of Plasmodium mitotic spindles during the asexual reproduction and results in aberrant tubulin mor
43 -an effect that can emerge in evolution with asexual reproduction and results in delayed fixation tim
44 ations for genomic consequences of long-term asexual reproduction and test hypotheses about its origi
45       We tracked the capacity for sexual and asexual reproduction and the chronological life span acr
46                 The effect of temperature on asexual reproduction and the timing of development in th
47  which features species with both sexual and asexual reproduction and varying ploidy levels.
48 aning) and (2) reproduction type (sexual and asexual reproduction) and extent of three dominant woody
49 ons suggests multiple independent origins of asexual reproduction, and a divergence-dating analysis i
50 de a lower limit on the number of origins of asexual reproduction, and an upper limit on the age of a
51 leotide resolution during vegetative growth, asexual reproduction, and infection-related morphogenesi
52  are important for vegetative growth, sexual/asexual reproduction, and infectious growth, whereas pur
53 losseri is a colonial ascidian that grows by asexual reproduction, and on a weekly basis regenerates
54 spite its importance for plant architecture, asexual reproduction, and perennial growth, the regulato
55                            Embryogenesis and asexual reproduction are commonly considered to be coord
56                            Multiple modes of asexual reproduction are observed among microbial organi
57          Although transitions from sexual to asexual reproduction are thought to have important evolu
58                     Gametophytic apomixis is asexual reproduction as a consequence of parthenogenetic
59 out bdelloid rotifers and their reversion to asexual reproduction as it pertains to HGT is included.
60 production has an immediate cost relative to asexual reproduction, as males only express their contri
61 rasites reduce the reproductive advantage of asexual reproduction by adapting to infect clonal genoty
62 ssue dynamics of the adult as well as during asexual reproduction by budding, foot regeneration, or e
63 p) regulates multicellular complexity during asexual reproduction by moderating the core developmenta
64                       Apomixis is a means of asexual reproduction by which plants produce embryos wit
65 tory gene expression during regeneration and asexual reproduction (by fission) in the segmented worm
66 and how a planarian rips itself apart during asexual reproduction can be fully explained through biom
67                                              Asexual reproduction can be triggered by interspecific h
68 ed for correct cell pattern formation during asexual reproduction (conidiation) and for initiation of
69 eles observed here suggests that adoption of asexual reproduction could itself be an evolutionary mec
70                                 During their asexual reproduction cycle (about 48 hours) in human red
71 abolomic variation is likely impacted by the asexual reproduction cycle of D. magna; however, the rel
72 ent study reveals that the intraerythrocytic asexual reproduction cycle of Plasmodium falciparum ends
73                             The erythrocytic asexual reproduction cycle of Plasmodium falciparum, the
74  malaria are caused by the intraerythrocytic asexual reproduction cycle of Plasmodium falciparum.
75                              During its 48 h asexual reproduction cycle, the malaria parasite Plasmod
76                                   Subsequent asexual reproduction cycles exhibited gradual regaining
77 off between sexual reproduction (fruits) and asexual reproduction (daughter-plants).
78 d does not interfere with vegetative growth, asexual reproduction, differentiation of early sexual ti
79  has the capacity for a significant level of asexual reproduction, each analysis suggested that M. gr
80                 During vegetative growth and asexual reproduction, FgBud14-GFP localized to hyphal ti
81 s been paid to the consequences of long-term asexual reproduction for sequence evolution in diploid o
82 n and transverse fission behavior underlying asexual reproduction in adult planarian flatworms, Schmi
83                          Apomixis, a type of asexual reproduction in angiosperms, results in progenie
84                                              Asexual reproduction in animals, though rare, is the mai
85                                              Asexual reproduction in Aspergillus nidulans is characte
86     This work establishes the feasibility of asexual reproduction in crops, and could enable the main
87 xual fertility that accompanied the shift to asexual reproduction in cultivars was reflected by signa
88 sential for vegetative growth and sexual and asexual reproduction in culture.
89    Apomixis is a naturally occurring mode of asexual reproduction in flowering plants that results in
90 nesis (LEC1 and FUS3) processes, we analyzed asexual reproduction in Kalanchoe leaves.
91 ther the presence of Rickettsia is linked to asexual reproduction in Liposcelis.
92 mode of reproduction that evolved long after asexual reproduction in response to specific genetic and
93                                              Asexual reproduction in the annelid Enchytraeus japonens
94       Stolons (elongated stems) are used for asexual reproduction in the crop species potato (Solanum
95  reprogramming in methylomes is required for asexual reproduction in the fungus.
96                   The parasite completes its asexual reproduction in the host red blood cell, where e
97                 However, the hypothesis that asexual reproduction in the snail leads to a high abunda
98 g the evolutionary origin and maintenance of asexual reproduction in this species contributes to a ge
99 allocation (carbon storage, root biomass and asexual reproduction) in both treatments relative to the
100 fe history of multigenerational, stolon-like asexual reproduction, interspersed with dispersal by wat
101                                  Facultative asexual reproduction is a trait commonly found in invasi
102                        The commonest type of asexual reproduction is clonal growth (vegetative propag
103                                              Asexual reproduction is expected to reduce the adaptive
104 ature of sessile organisms, but this form of asexual reproduction is thought to interfere with sexual
105                                              Asexual reproduction is widespread in land plants, inclu
106 ce of apomixis-the transition from sexual to asexual reproduction-is a prominent feature of modern ci
107 ascomycetous fungi choose between sexual and asexual reproduction; it is only when appropriately stre
108                     We provide evidence that asexual reproduction likely initiated as a process of or
109                                During normal asexual reproduction, many of these same genes are neede
110 gamy and somatic embryogenesis and that such asexual reproduction may be ancient.
111 spersal, excessive inbreeding, and prevalent asexual reproduction may contribute to an extinction vor
112 xual reproduction on levels of load, and how asexual reproduction may interact with genetic drift (po
113  multicellular organisms that expand through asexual reproduction mechanisms, enabling more comprehen
114 ther asexual reproduction modes (the regular asexual reproduction mode in this organism and vascular
115 ar budding deviated significantly from other asexual reproduction modes (the regular asexual reproduc
116                           By contrast, under asexual reproduction, non-altruistic genotypes seem to b
117 1736 and 1744 culminated in the discovery of asexual reproduction of an animal by budding, the first
118                               Cloning is the asexual reproduction of an individual, such that the off
119                           Cloning allows the asexual reproduction of selected individuals such that t
120  Arabidopsis does not support the growth and asexual reproduction of the barley pathogen, Blumeria gr
121                                              Asexual reproduction of the parasite is critically depen
122                                              Asexual reproduction of the parasite within its host cel
123 er stem leaning-morphologies associated with asexual reproduction-of our study species.
124 rsity of mechanisms for achieving sexual and asexual reproduction, often simultaneously.
125                               The effects of asexual reproduction on both the number of deleterious m
126 etic Daphnia to assess the effect of partial asexual reproduction on effective population size and am
127 finite populations to identify the effect of asexual reproduction on levels of load, and how asexual
128 r switches between, for instance, sexual and asexual reproduction, or cyclic and non-cyclic life hist
129  mode and epistasis are allowed to coevolve, asexual reproduction outcompetes sexual reproduction.
130 e data reveal the crucial role of sexual and asexual reproduction, polyploidy and host domestication
131  taxa possessed either direct development or asexual reproduction, possibly facilitating long-term pe
132 that during the weekly colony budding (i.e., asexual reproduction), prior to programmed cell death an
133 results offer another ecological context for asexual reproduction: rapid size reduction as a defense.
134                                   Increasing asexual reproduction resulted in an increase in mean fit
135  the regulation of cell identity, sexual and asexual reproduction, secondary metabolism and pathogene
136 fers advantages as a test species due to its asexual reproduction, short life cycle, and high sensiti
137 e advantages and disadvantages of sexual and asexual reproduction should consider the possibility of
138 roviride, injury results in the formation of asexual reproduction structures restricted to regenerati
139                                        Under asexual reproduction, such hidden epistasis influences e
140                               Apomixis is an asexual reproduction system without fertilization, which
141 ltanudG mutant forms minute colonies lacking asexual reproduction: this phenotype resembles the pheno
142                                    Apomixis, asexual reproduction through seed, enables breeders to i
143                                    Apomixis, asexual reproduction through seed, is widespread among a
144                                  Introducing asexual reproduction through seeds - apomixis - into cro
145              This is a key step in apomixis (asexual reproduction through seeds) and could help to pr
146                                  Apomixis or asexual reproduction through seeds, enables the preserva
147                                    Apomixis, asexual reproduction through seeds, has the potential to
148                    Introduction of apomixis, asexual reproduction through seeds, into crop species ha
149                                              Asexual reproduction through seeds, or apomixis, is a pr
150 netic species) avoid the negative effects of asexual reproduction through the production of rare male
151 osphaera plantaginis employs both sexual and asexual reproduction to increase its chances of infectin
152     The relative contributions of sexual and asexual reproduction to the genetic structure of populat
153       In the freshwater coelenterate, hydra, asexual reproduction via budding occurs at the base of t
154                                              Asexual reproduction via thelytokous parthenogenesis is
155 MAT genes can also affect similar aspects of asexual reproduction when expressed in C. heterostrophus
156 ayed severe morphological defects related to asexual reproduction when grown on glucose (1%) minimal
157 ds to the fungus, particularly during fungal asexual reproduction when lipid demand is high.
158 le of thelytokous parthenogenesis, a type of asexual reproduction where females develop from unfertil
159  the activation of an alternative pathway of asexual reproduction, which involves gradual regaining o
160 pitulate existing models, which suggest that asexual reproduction will overpower horizontal transfer
161                   The two models incorporate asexual reproduction with varying levels of outcrossing

 
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