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1 conspicuous, heritable tag, such as a green beard.
2 erminal regions, as described originally for Bearded; accordingly, we refer to them as Bearded family
3 androgens in vivo, i.e., androgen-dependent beard and androgen-independent nonbalding scalp, produce
6 in the expression of these genes in cultured beard and scalp dermal papilla cells reflected similar d
8 main types of such cells in zebrafish--Rohon-Beard and trigeminal neurons--have served as models for
9 icin is expressed first in trigeminal, Rohon-Beard, and posterior lateral line ganglia neurons, which
10 red human dermal papilla cells isolated from beard (androgen-sensitive) and occipital scalp (androgen
11 feature-a sequence that closely matches the Bearded box, a regulatory motif found in the 3' UTRs of
13 enes involved in Notch signalling, including Bearded (Brd) and the genes of the Enhancer of split Com
14 n-of-function alleles of the Drosophila gene Bearded (Brd) cause sensory organ multiplication and los
15 and E(spl)m6 encode divergent members of the Bearded (Brd) family of proteins, bringing to four (m(al
16 l class of gain-of-function mutations at the Bearded (Brd) locus which specifically affect the develo
17 drogens stimulate many hair follicles, e.g., beard, but may cause regression on the scalp; occipital
18 ecretion of an autocrine growth factor(s) by beard, but not scalp cells, to which only beard cells ar
19 one increased mitogenic factor production by beard, but not scalp cells; only beard cells responded t
24 In the present study, we examined how wild bearded capuchin monkeys, Sapajus libidinosus, at Fazend
25 viors video-recorded in a wild population of bearded capuchins (Sapajus libidinosus) at Fazenda Boa V
28 mi-intact preparations to characterize Rohon-Beard cell electrical membrane properties in several tou
29 ons; inhibiting Ngn1 activity prevents Rohon-Beard cell formation but not formation of other primary
30 Pax-3 and Msx-1 expression, from which Rohon-Beard cells and neural crest will subsequently arise.
31 by beard, but not scalp cells, to which only beard cells are able to respond, reflecting the response
32 s inhibited by reducing Na+ current in Rohon-Beard cells either genetically (the macho mutation) or p
35 is decreased or absent in the ICM and Rohon-Beard cells in some hematopoietic mutants and is unaffec
36 d media had a similar stimulatory potential, beard cells incorporated approximately double the [3H]th
37 In contrast, Id4 expression in the Rohon-Beard cells is inhibited by activated Notch and increase
44 inal neurons, including dorsal sensory Rohon-Beard cells, two motoneuron subtypes with different axon
47 arate genes, altruism is facilitated through beard chromodynamics in which many beard colours co-occu
49 stages 21-28, the pioneering axons of Rohon-Beard, commissural, primary motor, and trigeminal gangli
51 ated in a newly discovered gene complex, the Bearded Complex; two others reside in the previously ide
53 ment is low, tags lead to conventional green beard cycles with periods of tag based cooperation and p
54 od, was stimulated in both frontal scalp and beard dermal papilla cell cultures by dexamethasone.
55 non-balding occipital and frontal scalp and beard dermal papilla cells (n = 10) were established.
58 e we profile miRNA expression in the central bearded dragon (Pogona vitticeps) using small RNA sequen
59 ermann's tortoise (Testudo hermanni) and the bearded dragon (Pogona vitticeps), using the transparent
62 ermore, the alternative renewal mechanism of bearded dragon dentition, with dual location of slow-cyc
63 f 1295 miRNAs were identified in the central bearded dragon genome; 664 of which were novel to centra
69 n cerebrovascular volume throughout sleep in bearded dragons and during non-rapid eye movement sleep
72 new type of edge state: one residing on the bearded edge that has never been predicted or observed.
73 t example is given by the edge states on the bearded edge that have never been observed-because such
74 image the edge states on both the zigzag and bearded edges of this photonic graphene, measure their d
75 Thus, the necessary components of a green-beard effect -- feature, recognition, and response -- ca
77 at such genes have been reported, the 'green beard effect' has often been dismissed because it is unl
78 tured populations and implies that the green beard effect, in the form of a fluid association of altr
82 as the property of "self-recognition." Green-beard effects have many formal similarities to systems o
83 ct-ratio 'needle' probe tips, as reported by Beard et al., suggests that the approach can now be exte
89 din and Schweisguth show that members of the Bearded family interact with Neuralized to regulate traf
90 ion, we provide evidence that members of the Bearded family of proteins (BFMs) inhibit Dl activation
93 entally subjected a common invertebrate, the bearded fireworm (Hermodice carunculata) to two levels o
94 fore, is driven by one of a few known "green beard genes," which direct cooperation toward other carr
98 zebrafish embryos displayed defects in Rohon-Beard mediated touch sensitivity, demonstrating the sign
99 ion organs from Late Permian deposits in the Beard-more Glacier region (central Transantarctic Mounta
100 air involvement (eyebrows, eyelashes, and/or beard), nail involvement, impaired quality of life, and
101 oot ganglion sensory neurons; however, Rohon-Beard neurons and dorsal root ganglion neurons are not n
102 supporting a previous hypothesis that Rohon-Beard neurons and neural crest form an equivalence group
104 ompanied by a depolarization of spinal Rohon-Beard neurons in Atp1a3a knockdown embryos, suggesting i
106 ver, show an anomalous distribution of Rohon-Beard neurons in the dorsal neural tube, suggesting that
107 ein (Ncad-GFP), which was expressed in Rohon-Beard neurons of the embryonic zebrafish spinal cord.
109 wn reduced Na(+) current amplitudes in Rohon-Beard neurons of zebrafish embryos, consistent with effe
110 onosynaptic inputs from mechanosensory Rohon-Beard neurons onto ipsilateral V2a interneurons selectiv
111 runk neural crest cell populations and Rohon-Beard neurons providing insight into previously uncharac
113 a number of neural tissues, including Rohon-Beard neurons, olfactory placode, eye primordia, and the
114 d delta signalling, have supernumerary Rohon-Beard neurons, reduced trunk-level expression of neural
115 uires the activation of mechanosensory Rohon-Beard neurons, we have used whole-cell recordings in sem
121 not required for axon regeneration in Rohon-Beard or DRG sensory neurons and negatively regulated sp
127 es generalize to a category (e.g., "men grow beards") prompts participants to infer essential structu
129 r grade masks tested on 1 adult male with no beard ranged from 79.0% (4.3%) to 26.5% (10.5%), with th
131 d live imaging of developing zebrafish Rohon-Beard (RB) neurons with molecular loss-of-function manip
132 regeneration in MNs but not in larval Rohon-Beard (RB) or adult dorsal root ganglion (DRG) sensory n
134 d in the reduction or complete loss of Rohon-Beard (RB) sensory neurons and trigeminal (TG) sensory p
136 ication of both neural crest cells and Rohon-Beard (RB) sensory neurons involves a complex series of
141 Fernando Monteiro, Ananias Escalante and Ben Beard review how molecular markers have been used to cla
143 condition in polar bears, ringed seals, and bearded seals despite recent sea ice loss in this region
146 ibility, proper growth and guidance of Rohon-Beard sensory neurons and spinal commissural interneuron
147 t manner to specify cell fates such as Rohon-Beard sensory neurons and trigeminal sensory placodes.