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1 a wide range of life styles from solitary to eusocial.
2 tion were more relevant for lineage-specific eusocial adaptations.
3       Though Cretaceous stem-group ants were eusocial and adaptively diverse, we hypothesize that the
4                       Helpers in primitively eusocial and cooperatively breeding animal societies for
5 arison of orthologous gene promoters between eusocial and solitary species revealed significant regul
6         The observed differences between the eusocial and the solitary bee species may reflect differ
7                        Although all ants are eusocial, and display a variety of complex and fascinati
8 mpact of sleep deprivation on signaling in a eusocial animal.
9 cene (ca. 45 million years ago) diversity of eusocial bee lineages.
10                                              Eusocial bees in particular must collect pollen and nect
11                      Colony defense in other eusocial bees is less well understood, but enough inform
12  data from acorn woodpeckers and primitively eusocial bees potentially can account for many of the hi
13 liponini), a mainly tropical group of highly eusocial bees, present an intriguing variety of well-des
14  female mating frequencies in 267 species of eusocial bees, wasps, and ants.
15 se plays an important role in the biology of eusocial bees.
16                                              Eusocial behavior has arisen in few animal groups, most
17 etic clade, thus implying a single origin of eusocial behavior.
18  family is required for all major aspects of eusocial behavior.
19 nipulation by nest mates in the evolution of eusocial behavior.
20 inking the expression of a termite gene with eusocial behavior; they illustrate the connection betwee
21 uticular hydrocarbons important in mediating eusocial behaviour.Cuticular hydrocarbons (CHC) mediate
22               Here we show that workers of a eusocial bumble bee (Bombus terrestris) enter unrelated,
23 e caste-associated miRNAs in the primitively eusocial bumblebee Bombus terrestris.
24                                  Primitively eusocial bumblebees are uniquely placed to illuminate th
25              However, despite neatly showing eusocial colonies as arenas where selection at the gene
26                     Honey bees live in large eusocial colonies in which a single queen is responsible
27                Naked mole-rats live in large eusocial colonies that are characterized by exceptional
28 f social complexity, from solitary living to eusocial colonies, and thus are exemplary for studies of
29                                           In eusocial colonies, group size may have similar effects o
30 f conflicts over sex-ratio production within eusocial colonies.
31 s, provide insights into the early stages of eusocial evolution because eusociality has arisen recent
32 provide insights into the earliest stages of eusocial evolution because eusociality in these taxa evo
33 fying adaptive molecular changes involved in eusocial evolution in insects is important for understan
34 or developing inferences regarding the early eusocial evolution of ants and termites.
35 eages and discuss potential common themes of eusocial evolution, as well as challenges and prospects
36 thways in B. terrestris, suggesting that, in eusocial evolution, the caste-associated role of individ
37    To investigate how miRNAs affect caste in eusocial evolution, we used deep sequencing and Northern
38 espidae), which is a model system for insect eusocial evolution.
39 ociated miRNAs occurring relatively early in eusocial evolution.
40 versals are common in the earliest stages of eusocial evolution.
41 oup selection is the strong binding force in eusocial evolution; individual selection, the strong dis
42                                              Eusocial groups contain individuals that forfeit their o
43 ves and sterile workers differentiate within eusocial groups has long been a core issue in sociobiolo
44 nces in glomerular numbers are higher in the eusocial honeybee and a sexual dimorphism of the relativ
45 ing these new genomes to those of the highly eusocial honeybee Apis mellifera and other Hymenoptera,
46                              In the advanced eusocial honeybee, Apis mellifera, studies suggest that
47 mason bees, whereas it is clearly present in eusocial honeybees and stingless bees.
48 pathway in queens, workers, and males of the eusocial hornet Vespa velutina.
49 cal identification of a sex pheromone in the eusocial hornets.
50                                           In eusocial Hymenoptera (ants, bees and wasps), queen and w
51                                      In some eusocial Hymenoptera (ants, bees and wasps), workers can
52           The complex social organization of eusocial Hymenoptera relies on sophisticated olfactory c
53 aste-associated miRNAs from outside advanced eusocial Hymenoptera, so providing evidence for caste-as
54 odea) and compare them with similar data for eusocial Hymenoptera, to better identify commonalities a
55 omologies in the olfactory pathways of these eusocial Hymenoptera.
56 It is therefore a paradox that two thirds of eusocial hymenopteran insects appear to be exclusively m
57 riking reproductive patterns in large-colony eusocial Hymenopteran species, from the loss of worker c
58  ground-dwelling predatory insects to become eusocial, increasing efficiency of tasks and establishin
59 genome-wide maps of chromatin structure in a eusocial insect and found that gene-proximal changes in
60                                       Unlike eusocial insect colonies, human societies do not exhibit
61           The honeybee (Apis mellifera) is a eusocial insect displaying a pronounced age-dependent di
62 ative and evolutionary genomics in different eusocial insect groups (bees, ants, wasps, and termites)
63 e greatest plasticity is found in the simple eusocial insect societies in which individuals retain th
64                                              Eusocial insect societies produce plastic phenotypes fro
65 placed to illuminate the evolution of highly eusocial insect societies.
66                                      Several eusocial insect species - with their unique displays of
67 matically different strategy in thousands of eusocial insect species in which colonies are started by
68         Genomic applications to the study of eusocial insect species, in particular, have led to seve
69 ons of methylation in eggs and sperm in this eusocial insect species.
70 the first accurate estimate of drifting in a eusocial insect: 56% of females drifted in a natural pop
71 volution of extreme cooperation, as found in eusocial insects (those with a worker caste), is potenti
72                             Nest drifting in eusocial insects (where workers move between nests) pres
73 s comprise one lineage of the triumvirate of eusocial insects and experienced their early diversifica
74 e the world's most conspicuous and important eusocial insects and their diversity, abundance, and ext
75 d per capita brood production in primitively eusocial insects and why only one of the five major line
76                                              Eusocial insects are characterized by reproductive divis
77  particularly intriguing for some species of eusocial insects because they display exceptionally high
78                   The spectacular success of eusocial insects can be attributed to their sophisticate
79                                   Genomes of eusocial insects code for dramatic examples of phenotypi
80                                              Eusocial insects exhibit a remarkable reproductive divis
81                                              Eusocial insects organize themselves into behavioral cas
82    Morphologically distinct worker castes of eusocial insects specialize in different tasks.
83 Such communication is especially critical in eusocial insects such as honey bees and ants, where coop
84                                              Eusocial insects use cuticular hydrocarbons as component
85    The evolution of sterile worker castes in eusocial insects was a major problem in evolutionary the
86 iate the interactions between individuals in eusocial insects, but the sensory receptors for CHCs are
87                                           In eusocial insects, genetically identical individuals can
88 lationship is particularly true for advanced eusocial insects, including ants, bees, and wasps, whose
89 mmals, DNA methylation in insects, including eusocial insects, is enriched in gene bodies of actively
90                                Some, such as eusocial insects, may use agonistic behavior to partitio
91                        In many facultatively eusocial insects, offspring need continuous care during
92                                      In most eusocial insects, only the queen can transmit genetic in
93                                     Advanced eusocial insects, such as ants, termites, and corbiculat
94                     In contrast, primitively eusocial insects, such as halictid bees, provide insight
95  altruism as that found in sterile castes of eusocial insects.
96  provides another remarkable parallel to the eusocial insects.
97 ergone a massive expansion in ants and other eusocial insects.
98 ers that resemble the caste systems found in eusocial insects.
99  positive selection acting on the genomes of eusocial insects.
100  prospects for establishing genetic tools in eusocial insects.
101 ionately large role in adaptive evolution of eusocial insects.
102 iscuity, revealing a novel benefit of it for eusocial insects.
103 re, including carnivores, bats, primates and eusocial insects.
104 omes, morphology, venoms, and parasitoid and eusocial life styles.
105 dation (and vice versa) and from solitary to eusocial life, we inferred the phylogeny and divergence
106 t symbionts with their hosts, favored by the eusocial lifestyle of honey bees, might have promoted th
107 rgence, there are striking differences among eusocial lifestyles, ranging from species living in smal
108 olutionary adaptations associated with their eusocial lifestyles.
109  various solitary insects to examine whether eusocial lineages share distinct features of genomic org
110 ignature of accelerated evolution across all eusocial lineages studied, as well as unique sets of 173
111 ness, is ancestral for all eight independent eusocial lineages that we investigated.
112 ion specific to either highly or primitively eusocial lineages, respectively.
113 the most prominent rapidly evolving genes in eusocial lineages.
114               A hallmark of animals that are eusocial, or those with advanced sociality, is reproduct
115 f sleep has been ascribed to a truly social (eusocial) organism in the context of its society.
116 ation of other biological characteristics of eusocial organisms, when accounts based on phylogenetic
117 rld's most diverse and ecologically dominant eusocial organisms.
118 nsights into the early evolution of advanced eusocial organisms.
119  life history characteristics as well as its eusocial organization.
120 males drifted in a natural population of the eusocial paper wasp Polistes canadensis, exceeding previ
121 "workers" in north temperate colonies of the eusocial paper wasp Polistes fuscatus disappear within a
122                                Subjects were eusocial paper wasps from queen and worker castes of 10
123 on of ecological keystone insects, including eusocial, phytophagous, and parasitoid lineages, occurre
124      Lower termites express a unique form of eusocial polyphenism in that totipotent workers can diff
125 at (Heterocephalus glaber) is a subterranean eusocial rodent with a markedly long lifespan and resist
126                          Naked mole-rats are eusocial rodents that live in large subterranean colonie
127              However, communities containing eusocial shrimp - which cooperatively defend territories
128                        It includes solitary, eusocial, socially parasitic, and an exceptionally high
129  more important for shaping conflicts within eusocial societies than for explaining its origins [6, 1
130 ion of labor is a defining characteristic of eusocial societies, but individual larvae will maximize
131  (Dinoponera quadriceps) that live in simple eusocial societies.
132  more recently has it become clear that many eusocial species also regularly reproduce thelytokously,
133             Paradoxically, queens of several eusocial species are extremely promiscuous, a derived be
134                                     However, eusocial species are far less common and have much less
135 e times across diverse terrestrial taxa, and eusocial species fundamentally shape many terrestrial ec
136        Mechanisms of disease control used by eusocial species include antibiotic glandular secretions
137 ary trajectories of caste differentiation in eusocial species is a major goal of sociobiology.
138 gically specialized castes are well known in eusocial species like ants and termites, but castes have
139  in a nest or other protected cavity, and so eusocial species must be able to exploit a predator-safe
140                                    Thus, all eusocial species of Hymenoptera are contained within two
141                   Consistent with this idea, eusocial species of sponge-dwelling Synalpheus shrimps f
142                                       In all eusocial species studied, thelytoky probably has a nucle
143 of social strategies, from fungus thieves to eusocial species to communities assembled by attraction
144 ploid sex determination mechanisms, which in eusocial species usually require heterozygosity for fema
145 n selection theory to explain the biology of eusocial species, independently of ploidy, and add suppo
146                                           In eusocial species, the sex ratio of helpers varies from f
147  trajectory between primitively and advanced eusocial species, which have, respectively, relatively u
148 e (Vespinae+Polistinae), which includes most eusocial species.
149 e especially characteristic of the queens of eusocial species.
150 r host breadth and higher abundance than non-eusocial species.
151 ns in early ontogeny should be restricted to eusocial species.
152      We studied how communities of tropical, eusocial stingless bees (Apidae: Meliponini) disassemble
153 proximate mechanisms of caste development in eusocial taxa can reveal how social species evolved from
154 icidae) represent one of the most successful eusocial taxa in terms of both their geographic distribu
155                             In facultatively eusocial taxa, offspring can choose whether to found new
156 , with a comparative study across all sexual eusocial taxa.
157                       During the Cretaceous, eusocial termites, bees, and vespid wasps also first app
158                               Reversals from eusocial to solitary behavior have occurred as many as 1
159 n diversity, leaving today only two advanced eusocial tribes comprising less than 2% of the total bee
160 anatory framework for caste evolution in the eusocial wasp genus Polistes (Vespidae), which is a mode
161 classic social insect model, the primitively eusocial wasp Polistes dominulus.
162  studying gene expression in the primitively eusocial wasp Polistes metricus.
163                  Colonies of the primitively eusocial wasp Ropalidia marginata consist of a single eg
164 ylogenetic hypothesis of Vespidae places the eusocial wasps (subfamilies Stenogastrinae, Polistinae,
165                                              Eusocial wasps of the family Vespidae are thought to hav
166 rise to different behavioral phenotypes in a eusocial worker caste.

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