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1 ents toward preferred temperatures (positive thermotaxis).
2 s are shared among pH-taxis, chemotaxis, and thermotaxis.
3 , a pathway that has been recently linked to thermotaxis.
4 rosophila gustatory receptor is required for thermotaxis.
5 ryophilic drive) precedes Tc tracking during thermotaxis.
6 slugs are highly defective in phototaxis and thermotaxis.
7 e down temperature gradients during negative thermotaxis.
8 s cPKC, is essential for a complex behavior, thermotaxis.
9 icate dTRPA1-expressing neurons in mediating thermotaxis.
10 eurons are also implicated in chemotaxis and thermotaxis.
11 s emerges in distinct motor responses during thermotaxis.
12 anglion (DOG) that are required for positive thermotaxis.
13              pkc-2 gene disruption abrogated thermotaxis; a PKC-2 transgene, driven by endogenous pkc
14 Our results suggest that sensory systems for thermotaxis and chemotaxis may converge on a common beha
15 ed by mutating Ser(311) or Ser(322), disrupt thermotaxis and suppress PKC-2-dependent cryophilic migr
16 e elucidate the basic rules of Aedes aegypti thermotaxis and test the function of candidate thermorec
17 ove up temperature gradients during positive thermotaxis and to move down temperature gradients durin
18 p a detailed, quantitative map of C. elegans thermotaxis and use these data to derive a computational
19 ncluding bacterial chemotaxis, pH taxis, and thermotaxis), and it also leads to predictions that can
20                       Currently, chemotaxis, thermotaxis, and rheotaxis have not been definitively es
21 and computational mechanisms responsible for thermotaxis are distinct in these organisms.
22                                           In thermotaxis assays of temperature gradient and two-tempe
23 iven by endogenous pkc-2 promoters, restored thermotaxis behavior in pkc-2(-/-) animals.
24  that disrupts vesicle clustering and animal thermotaxis behavior when expressed in a single neuron i
25 uits, and molecular networks responsible for thermotaxis behavior.
26 ind that C. elegans exhibits robust negative thermotaxis bias under conditions of varying T(c) and te
27   The Drosophila melanogaster larva performs thermotaxis by biasing stochastic turning decisions on t
28                          Disrupting positive thermotaxis by inactivating cold-sensitive neurons in th
29                We propose dTRPA1 may control thermotaxis by sensing environmental temperature.
30   This computational analysis indicates that thermotaxis enables animals to avoid temperatures at whi
31               A candidate neural network for thermotaxis in C. elegans has been identified, but the b
32 l (TRP) family ion channel, is essential for thermotaxis in Drosophila.
33 required for this specialized host-selective thermotaxis in mosquitoes.
34 D causes a near-total loss of phototaxis and thermotaxis in mutant aggregates, without obvious effect
35 ional migration is not a result of bacterial thermotaxis in the classical sense, because the steepnes
36 hese data to derive a computational model of thermotaxis in the soil, a natural environment of C. ele
37                      We discover that larval thermotaxis involves a larger repertoire of strategies t
38 manipulation of PKC-2 activity revealed that thermotaxis is controlled by cooperative PKC-2-mediated
39                                              Thermotaxis is important for animal survival, but the mo
40                    TRPA1-dependent tuning of thermotaxis is likely critical for mosquitoes host-seeki
41                                         This thermotaxis learning behavior associates paired stimuli,
42 mutants, indicating that crh-1 is crucial in thermotaxis memory in these mutants.
43 Our observations demonstrate that a negative thermotaxis navigational strategy can be generated via d
44 ition, the loss of crh-1/CREB suppressed the thermotaxis phenotypes of rcan-1 and tax-6 mutants, indi
45                        Our data suggest that thermotaxis relies upon neurons and molecules distinct f
46 r different conditions to execute a negative thermotaxis strategy.
47 ermal gradients, Caenorhabditis elegans uses thermotaxis to bias its movement along the direction of
48                   This role for rhodopsin in thermotaxis toward 18 degrees C was light-independent.
49 erature (T(c)), C. elegans exhibits negative thermotaxis toward colder temperatures using a biased ra

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