戻る
「早戻しボタン」を押すと検索画面に戻ります。

今後説明を表示しない

[OK]

コーパス検索結果 (left1)

通し番号をクリックするとPubMedの該当ページを表示します
1 sitive control thiamethoxam dose (2.5 ng(-1) bee), or one of two low doses (0.377 or 0.091 ng(-1)) ba
2                We compared the genomes of 10 bee species that vary in social complexity, representing
3  but all are predicted to contain at least 5 bee species, and 46-59% of future coffee-suitable areas
4             HGD maintains genomic data for 9 bee species, 10 ant species and 1 wasp, including the ve
5 a on the spatio-temporal distributions of 91 bee species show that seasonal patterns of abundance and
6  proven a challenging pathogen to study in a bee model and interactions between viruses and the bee a
7  legs rather than in the abdomen increases a bee's moment of inertia about the roll and yaw axes but
8 c flow detectors in the central complex of a bee has inspired a new model of path integration.
9  focal apposition eye, similar to those of a bee or dragonfly.
10 ronal and behavioral plasticity underlying a bee's foraging behavior.
11 ctron Microscopy images shows that activated bee pollen carbon (ABP) is comprised of spiky, brain-lik
12 tressors by losing almost their entire adult bee population in a short time, resulting in a colony po
13                             Increasing adult bee mortality had a much greater impact on colony surviv
14 nt, adults (lower dose of 0.066 microg/adult bee/day) at sublethal, field-realistic doses given over
15 any agrochemical pesticides adversely affect bee health even at sublethal levels.
16 s resulting from antibiotic exposure affects bee health, in part due to increased susceptibility to u
17 demonstrate how microbial metabolism affects bee growth, hormonal signaling, behavior, and gut physic
18 f allergen-specific B cells before and after bee venom tolerance induction.
19  IgG4-switched memory B cells expanded after bee venom exposure.
20                     Neonicotinoids can alter bee navigation, but we present the first evidence that n
21  neonicotinoid alone can significantly alter bee flight.
22 s across a 75,000 km(2) region, and analyzed bee abundance, species richness, composition, and life-h
23 at they store in their colonies as honey and bee bread.
24 ied clothianidin in leaf, nectar, honey, and bee bread at organic and seed-treated farms.
25     This unique association between mite and bee persists due to the evolution of low Varroa reproduc
26            Diminished coffee suitability and bee richness (i.e., negative coupling), however, occur i
27        In our models, coffee suitability and bee richness each increase (i.e., positive coupling) in
28 n surface waters, non-target vegetation, and bee products, but the risks posed by environmental expos
29 33% of the future coffee distribution areas, bee richness decreases and coffee suitability increases.
30                                    To assess bee-mediated pollen dispersal on a smaller scale, we con
31 nd enzymatic activity of membrane-associated bee venom PLA2, covering a pressure range up to 2 kbar.
32                                       Bumble bee (Bombus) species are ecologically and economically i
33 ation systems within and outside of a bumble bee colony.
34           We found that in two alpine bumble bee species, decreases in tongue length have evolved ove
35 itored honey bee (Apis mellifera) and bumble bee (Bombus spp.) foragers in coastal California from 19
36 bers of the honey bee (Apis spp.) and bumble bee (Bombus spp.) gut microbiota.
37 ious outbreak ofN. bombiin commercial bumble bee rearing stocks in North America.
38  predict queen production and enhance bumble bee population viability.
39 e ofN. bombiand its potential role in bumble bee decline remain speculative.
40 lights the importance of interpreting bumble bee conservation efforts in the context of overall popul
41 erannual abundance of three subalpine bumble bee species.
42            Using cell cultures of the bumble bee parasite Crithidia bombi, we determined (1) growth-i
43  in its pollinators, males of the cellophane bee Colletes cunicularius [11-13].
44                               In the central bee brain, the IC somata and their dendritic region, we
45 ot important in explaining twentieth century bee population trends.
46                                 We collected bee community data from 36 sites across a 75,000 km(2) r
47 of diversity found in Asia, where commercial bee breeding activities are low or nonexistent.
48 uggests that land use change may disassemble bee communities via different mechanisms in temperate an
49 ratios appear to be a primary factor driving bee pollen-foraging behavior and may explain observed pa
50          Melittin, the main component of dry bee venom, was used as a model amphipathic alpha-helical
51            The genetic diversity within each bee colony, particularly as a consequence of polyandry b
52 osed to multiple exposures to venom/year (eg bee keepers).
53  the widespread presence of ancient Egyptian bee iconography dating to the Old Kingdom (approximately
54 on [4], suggesting that caffeine may enhance bee reward perception.
55 thin and among populations of the euglossine bee-pollinated vine Dalechampia scandens.
56 lausible assumptions, suggested that AIT for bee and wasp venom allergy is only likely to be cost-eff
57 eated areas, with potential consequences for bee declines and pollination service delivery.
58 r in the corbiculate Electrapini as food for bee larvae (brood) and involves packing corbiculae with
59  linked with experiments and also scarce for bee pollinators.
60 scription factors involved in the shift from bee to moth pollination reside in particularly dynamic r
61 nology can play a critical role in governing bee population responses to global change.
62 o indications of Stone Age people harvesting bee products; for example, honey hunting is interpreted
63 s were more dangerous and resulted in higher bee mortality.
64                                        Honey bee antiviral responses include RNA interference and imm
65                                        Honey bee colonies exhibit an age-related division of labor, w
66                                        Honey bee colonies have suffered from increased attrition in r
67                                        Honey bee colony losses are triggered by interacting stress fa
68                                        Honey bee males that are infected by the parasite have Nosema
69     Many factors can negatively affect honey bee (Apis mellifera L.) health including the pervasive u
70 ounds, which can differentially affect honey bee preference.
71 in the RNA binding are conserved among honey bee iflaviruses, suggesting a putative role of the genom
72 sing on Arabidopsis and using rice and honey bee for replication.
73 hat foragers of different native Asian honey bee species can detect and use a specialized alarm phero
74 kers of the most abundant native Asian honey bee, Apis cerana and tested the responses of other bee s
75 y upon foragers and nests of the Asian honey bee, Apis cerana.
76 riod, and reveal a correlation between honey bee colony losses and national-scale imidacloprid (a neo
77 ents with double sensitization to both honey bee (HBV) and yellow jacket venom (YJV).
78 omega-6:3 ratio of pollen collected by honey bee colonies in heterogenous landscapes and in many hand
79  Here we show that pollen collected by honey bee foragers in maize- and soybean-dominated landscapes
80  wasp Lysiphlebus fabarum and the Cape honey bee Apis mellifera capensis the origin of thelytoky have
81                            In the Cape honey bee it has been argued that thelytoky (th) controls the
82 an orthologs to the strongly conserved honey bee genes associated with the alarm pheromone response s
83  patients who had undergone controlled honey bee sting challenge after at least 6 months of HBV immun
84                               All core honey bee intestinal bacterial genera such as Lactobacillus, B
85 from oilseed rape with those detailing honey bee colony losses over an 11 year period, and reveal a c
86 dings suggest that genetically diverse honey bee populations can recover from introduced diseases by
87 tiple interacting stressors is driving honey bee colony losses and declines of wild pollinators, but
88 tant hygienic behavior in the European honey bee (Apis mellifera L.).
89 they present a greater risk factor for honey bee health than previously suspected.
90  pathogen prevalence, as observed from honey bee colony collapse disorder.
91 in the cell line AmE-711, derived from honey bee embryos.
92 tal glycogen, lipids, and protein from honey bee workers were quantified.
93 rofiles of three stages of the haploid honey bee genome: unfertilised eggs, the adult drones that dev
94 to provide suitable plants for healthy honey bee colonies.
95  specific to mites and not to the host honey bee.
96                     RNA viruses impact honey bee health and contribute to elevated colony loss rates
97 ng Virus (DWV) into the most important honey bee viral pathogen responsible for the death of millions
98 inked to the recent marked increase in honey bee colony failure, including pests and pathogens, agroc
99 nert potentiate viral pathogenicity in honey bee larvae, and guidelines for OSS use may be warranted.
100 tion sequencing, we identified VDV1 in honey bee pupae in the US.
101 ied distinct sensitization profiles in honey bee venom (HBV) allergy, some of which were dominated by
102 nses of these two pathways to 27 known honey bee pheromonal compounds emitted by the brood, the worke
103                            I monitored honey bee (Apis mellifera) and bumble bee (Bombus spp.) forage
104 id on olfactory learning in the native honey bee species, Apis cerana, an important pollinator of agr
105 etter characterize the mechanism(s) of honey bee antiviral defense, bees were infected with a model v
106 e results further our understanding of honey bee antiviral defense, particularly the role of a non-se
107           Recent high annual losses of honey bee colonies are associated with many factors, including
108 -virus interaction in the induction of honey bee colony losses.
109                            One form of honey bee social immunity is the collection of antimicrobial p
110 onphospholipid as a novel substrate of honey bee venom phospholipase A2.
111 hin the nest through the activities of honey bee-derived microbes and enzymes.
112 ting the observed effects of pollen on honey bee health, which incorporates the possible effects on c
113 on with escalating negative effects on honey bee immunity and health.
114 of effects of N. apis or N. ceranae on honey bee learning and memory.
115 effects of Nosema ceranae infection on honey bee microRNA (miRNA) expression, we deep-sequenced honey
116  gene expression signatures from other honey bee behaviors do not show this enrichment, nor do datase
117  (miRNA) expression, we deep-sequenced honey bee miRNAs daily across a full 6-day parasite reproducti
118 rities in humans and the highly social honey bee reflect common molecular mechanisms.
119 sects and the specific prediction that honey bee worker reproduction is driven more by patrigenes.
120          We tested the hypothesis that honey bee worker reproduction is promoted more by patrigenes t
121         Parasites and pathogens of the honey bee (Apis mellifera) are key factors underlying colony l
122 nt-binding protein 14 (OBP14) from the honey bee (Apis mellifera) has been designed for the in situ a
123                                    The honey bee (Apis mellifera) is commonly infected by multiple vi
124 sella alvi are dominant members of the honey bee (Apis spp.) and bumble bee (Bombus spp.) gut microbi
125 f simple ocellar photoreceptors in the honey bee allows for the necessary input for an optimal color
126                 We focused here on the honey bee Apis mellifera, a social insect that relies on a wid
127 aged colonies of a single species, the honey bee Apis mellifera.
128 parasites can transmit sexually in the honey bee Apis mellifera.
129  variation in plant choice between the honey bee colonies.
130 egulate the social organization of the honey bee colony.
131 e of the three-helical junction of the honey bee dicistrovirus Israeli acute paralysis virus (IAPV) I
132 rease the nutritional diversity of the honey bee diet.
133 e generated a metatranscriptome of the honey bee gut microbiome.
134 suggest that the gut microflora of the honey bee harbours bacterial members with unique roles, which
135  varroa mite, its environment, and the honey bee host, mediated by an impressive number of cues and s
136                                    The honey bee is of paramount importance to humans in both agricul
137                     Interestingly, the honey bee olfactory system harbors two central parallel pathwa
138 rome P450 monooxygenases (P450) in the honey bee, Apis mellifera, detoxify phytochemicals in honey an
139 cetylcholinesterase 1 (AmAChE1) of the honey bee, Apis mellifera, has been suggested to have non-neur
140 tion of the microbial community in the honey bee, as revealed by metatranscriptome sequencing, resemb
141         How can a pollinator, like the honey bee, perceive the same colors on visited flowers, despit
142 rtebrate model of social behavior, the honey bee, revealed distinct brain gene expression patterns in
143 les and addressed this question in the honey bee, the only insect in which configural learning has be
144                                    The honey bee, the world's most important agricultural pollinator,
145 al community to food processing in the honey bee, we generated a metatranscriptome of the honey bee g
146 resence of alternative splicing in the honey bee.
147        Therefore, we predict that this honey bee population is a ticking time-bomb, protected by its
148 g virus is an important contributor to honey bee colony losses.
149 ntimicrobial properties of honey or to honey bee defense against environmentally-acquired microorgani
150 onicotinoids brought back in pollen to honey bee hives in arable landscapes was from wildflowers, not
151 MP) is at least 20 times more toxic to honey bee larvae than to adults, but the underlying cause of t
152 ning of the economically highly valued honey bee.
153 While the natural foods of the western honey bee (Apis mellifera) contain diverse phytochemicals, in
154  ceranae is a pervasive and widespread honey bee pathogen that is associated with colony declines and
155 irus-1 (VDV1), are the most widespread honey bee viruses.
156 ortunistic stealing of honey from wild honey bee nests.
157 otics are commonly used in animal husbandry, bee-keeping, fish farming and other forms of aquaculture
158 ly intakes of 1.42-3.48 ng/bee/day) impaired bee ability to ascend.
159     We identified Eucalyptus as an important bee-forage plant particularly poor in omega-3 and high i
160  Relatively little is known about changes in bee community composition in the tropics, where pollinat
161 Increasing concentrations of clothianidin in bee bread were correlated with decreased glycogen, lipid
162     A similar shift seems to be occurring in bee forage, possibly an important factor in colony decli
163    Whereas some ubiquitous phytochemicals in bee foods up-regulate detoxification and immunity genes,
164 munological responses after stings varied in bee and vespid venom-allergic patients.
165 e to pesticide-induced changes in individual bee behaviour, but most likely due to effects at the col
166 ides lack acute toxicity, they may influence bee health by interfering with quercetin detoxification,
167  tuned to hornet threat level, of inhibiting bee departures from the safe interior of the nest.
168 s, even though the alarm pheromone itself is bee-specific.
169 composed mainly of the dicistrovirid Kashmir bee virus (KBV) was tested in cell culture, the outcome
170  restricted to a limited subset of all known bee species.
171 vely correlated with the time since the last bee sting.
172 cies of honeybee, and a solitary leafcutting bee, are strikingly similar.
173  black queen cell virus (BQCV)] in both live bee and cell culture assays, IAPV replicated to higher l
174                                  Season-long bee abundance and richness were not detectably different
175           We identify 139 counties where low bee abundances correspond to large areas of pollinator-d
176 aureus, with a particular focus on two major bee-derived antibacterial components, defensin-1 and hyd
177 ed for increased pathogen control in managed bee species to maintain wild pollinators, as declines in
178                                         Mean bee richness will decline 8-18% within future coffee-sui
179 A (from moth) with residues 2-9 of melittin (bee venom)], three fluorescence signals report oxidative
180 rst-case field-realistic dose is 0.44 microg/bee/day.
181                       Strategies to mitigate bee loss generally aim to enhance floral resources.
182               Between 2008 and 2013, modeled bee abundance declined across 23% of US land area.
183 1)) and 4-oxo-decanoic acid (4-ODA, 13.3 mug bee(-1)) at a 0.78 ratio of 4-OOA/4-ODA.
184 ds were 4-oxo-octanoic acid (4-OOA, 10.4 mug bee(-1)) and 4-oxo-decanoic acid (4-ODA, 13.3 mug bee(-1
185   We explored how the biodiversity of native bee species changes across forested, agricultural, and u
186 by neonicotinoids on a broad range of native bee species deserve further study.
187 e used globally, but their effects on native bee species are poorly understood.
188 f S. alvi were able to colonize their native bee host but not bees of another genus.
189                       Here, we present a new bee species that excavates sandstone nests, Anthophora (
190  a single imidacloprid dose as low as 0.1 ng/bee had significantly reduced olfactory learning acquisi
191 exposed as larvae to a total dose of 0.24 ng/bee did not have reduced survival to adulthood.
192                   Acute consumption (1.34 ng/bee) impaired locomotion, caused hyperactivity (velocity
193 f consuming a single sublethal dose (1.34 ng/bee), foragers showed excitation and significantly incre
194 field-relevant daily intakes of 1.42-3.48 ng/bee/day) impaired bee ability to ascend.
195 -relevant thiamethoxam doses of 1.96-2.90 ng/bee/day.
196  Bomblyiid flies were the most effective non-bee flower visitors.
197  but also in shifts in seasonal abundance of bee pollinators.
198 ding a geochronologic midpoint assessment of bee pollen-collection strategies.
199 neonicotinoids causing a reduced capacity of bee species to establish new populations in the year fol
200 ect the specific ecological circumstances of bee foraging.
201 M) to predict physicochemical composition of bee pollen mixture given their botanical origin.
202 the published literature a global dataset of bee diversity at sites facing land-use change and intens
203 nicotinoids are implicated in the decline of bee populations.
204 he ImmunoCAP system for routine diagnosis of bee venom (BV) allergy.
205 ferred floral resources is the key driver of bee decline because accurate assessment of host plant pr
206 cent results on the potential involvement of bee gut communities in pathogen protection and nutrition
207 icotinoids could scale up to cause losses of bee biodiversity.
208 f bird diversity, along with major losses of bee diversity.
209 ysicochemical characteristic of a mixture of bee pollen, given their botanical origin, fuzzy models p
210                 The distinct morphologies of bee pollens and cattail pollens are resembled on the fin
211  impact on colony survival than mortality of bee larvae or reduction in egg laying rate.
212 erences with intensive field observations of bee foraging.
213                     Declining populations of bee pollinators are a cause of concern, with major reper
214       We determined host plant preference of bee species using pollen loads on specimens in entomolog
215                    The geographical range of bee product exploitation is traced in Neolithic Europe,
216   Here, we investigated the putative role of bee venom (Bv) in human FOXP3-expressing Treg homeostasi
217                         No previous study of bee spatial navigation has been able to follow animals'
218  atlas data to quantify population trends of bee species and their host plants.
219 ly aligned with body orientation) typical of bee flight, a feature not captured in any previously pro
220         This review takes a holistic view of bee toxicology by taking into account the spectrum of xe
221 nd because coffee production is dependent on bee pollination.
222  statistically significant, and dependent on bee size.
223 nicotinoid insecticides as seed dressings on bee-attractive crops.
224 c-induced dysbiosis (microbial imbalance) on bee health and susceptibility to disease has not been fu
225 d enforcing effective quarantine measures on bee movements are all practical measures that should be
226 attention to the impact of the microbiota on bee health.
227 des, and in particular of neonicotinoids, on bee health remain much debated.
228 melittin, the active molecule of apitoxin or bee venom, were investigated on human red blood cells (R
229 on of some flying insects [3-5]-of an orchid bee, Euglossa imperialis.
230 f large ocellar L-neurons in the male orchid bee Euglossa imperialis.
231 tied to the remarkably high number of orchid bee species coexisting together in some neotropical comm
232                          A specialist orchid-bee study combining herbarium, museum and field data sho
233 pis cerana and tested the responses of other bee species to these alarm signals.
234 how adverse effects of imidacloprid on queen bee fecundity and behavior and improves our understandin
235 ect centering behaviour as found in the real bee's behaviour.
236 noculating a mixture of iflavirids [sacbrood bee virus (SBV), deformed wing virus (DWV)] and dicistro
237 bial pollen baskets (corbiculae) of the same bee taxa from a taxonomically much narrower suite of arb
238     Whereas the olfactory systems of several bee and ant species have been well characterized, very l
239                 Many of them, including slow bee paralysis virus (SBPV), cause lethal diseases in hon
240 owed that MV is most closely related to Slow bee paralysis virus (SBPV), which is highly virulent in
241 l aspects of size regulation in the solitary bee, Osmia lignaria We demonstrate that starvation cues
242 ortant given concerns about declines in some bee species.
243 ncluding the nectar-providing plant species, bee species, geographic area, and harvesting conditions.
244 0 K) or 40,000 (40 K) live N. ceranae spores/bee, Vg titers were significantly elevated by + 83% and
245 ingless bee honey samples, from 11 stingless bee species, were examined.
246                       Twenty-eight stingless bee honey samples, from 11 stingless bee species, were e
247 t dissimilar to those reported for stingless bee honeys from the neo-tropics.
248 vely subordinate to group-foraging stingless bee species.
249  the physicochemical properties of stingless bee honey from SE Asia (Thailand).
250   We compared functional traits of stingless bee species found in pastures surrounded by differing am
251  with the Apis mellifera standard, stingless bee honey is characterized as possessing higher moisture
252 ate bee communities, we found that stingless bee species with the widest diet breadths were less like
253 ependently in Mesoamerica with the stingless bee Melipona beecheii, as documented by archaeological f
254 fferent members of a colony of the stingless bee Melipona scutellaris.
255                                    Stingless-bee honeys contained more water and less total sugars an
256           Increasing production of stingless-bee honey and the prospect of broader marker for natural
257 g with electrophoresis profiles of stingless-bee honeys proteins could be an alternative for determin
258 n designing conservation habitats supporting bee populations.
259 o both theoretical predictions and temperate bee communities, we found that stingless bee species wit
260              Temporally, we demonstrate that bee products were exploited continuously, and probably e
261  finding was explained by demonstrating that bee venom-derived phospholipase A2 (PLA2) activates T ce
262  herbarium, museum and field data shows that bee flight dates are advancing faster than orchid flower
263 roactive levels to their site of action: the bee brain.
264 del and interactions between viruses and the bee antiviral immune response remain poorly understood.
265   We used QTL mapping in hybrids between the bee-pollinated monkeyflower Mimulus lewisii and the clos
266 nwhile, nest defenders were triggered by the bee alarm pheromone and live hornet presence to heat-bal
267 umans in intelligence - rather he saw in the bee a qualitatively different form of intelligence, tail
268 gical recording of olfactory circuits in the bee brain to determine whether mushroom bodies (MBs), br
269  for estimating angular velocity (AV) in the bee brain, capable of quantitatively reproducing experim
270 to the information processing regions in the bee brain.
271 bees, indicating an earlier evolution in the bee lineage.
272 CREB (Apis mellifera CREB, or AmCREB) in the bee's division of labor.
273 eas nectar is stored in the abdomen near the bee's center of mass, pollen is carried on the hind legs
274  an important role for the regulation of the bee antiviral immune response by ATP-sensitive inwardly
275 urons converge in the central complex of the bee brain, and through block-face electron microscopy, w
276  plant sources and use in the defense of the bee community.
277                   Detailed morphology of the bee proboscis is shown to be finely adjusted to the flor
278             These findings indicate that the bee gut microbiota has basic roles similar to those foun
279 structures and neuronal responses within the bee brain and subsequently compared their ability to gen
280 Land-use change and intensification threaten bee populations worldwide, imperilling pollination servi
281 ects of neonicotinoid-treated crops on three bee species across three countries (Hungary, Germany, an
282 ether migratory management is detrimental to bee health.
283                  Levels of sIgE and sIgG4 to bee and vespid venom, rApi m 1, and rVes v 5 were measur
284  serological markers to predict tolerance to bee and vespid stings.
285                                        Using bee and wasp venom responses as a model system, we inves
286                Honey is generated by various bee species from diverse plants, and because the value o
287  treadmill paradigm with a tethered, walking bee was successful as bees exhibited robust discriminati
288 ange and intensification, and assess whether bee responses to these pressures vary across 11 regions
289                                         Wild bee declines have been ascribed in part to neonicotinoid
290 sion of RNA viruses between managed and wild bee pollinators, pointing to an interconnected network o
291 quantified expert knowledge to estimate wild bee abundance and associated uncertainty.
292       We relate 18 years of UK national wild bee distribution data for 62 species to amounts of neoni
293 ighlight the species-specific nature of wild bee decline and indicate that mitigation strategies will
294 secticides to losses of the majority of wild bee species.
295 These areas of mismatch between supply (wild bee abundance) and demand (cultivated area) for pollinat
296  biogeographical regions, crop-visiting wild bee communities are dominated by a small number of commo
297  was one of two main factors associated with bee decline.
298  vespid venom, but not in those treated with bee venom.
299 uous behavioural information for each worker bee.
300                                Over 8 years, bee abundances were driven primarily by the indirect eff

WebLSDに未収録の専門用語(用法)は "新規対訳" から投稿できます。
 
Page Top