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1 eristem dome and primordia and in developing stolons.
2 sues and induced by short days in leaves and stolons.
3 ole of PP2A in the tuberization induction in stolons.
4 sport from the leaf to the stem and into the stolons.
5 sect predation on leaves, and photoperiod in stolons.
6 o a short-day photoperiod in both leaves and stolons.
7 d high in the apical 1 to 2 mm of tuberizing stolons.
8  being detected in leaves and the highest in stolons.
9 ld increase in fruit yield at the expense of stolons.
10 sues and induced by short-days in leaves and stolons.
11 into a branch crown (a flowering shoot) or a stolon (a horizontal stem that produces daughter plants)
12 ich establishes the development of branches, stolons and inflorescences.
13                           Structures such as stolons and nematocyst-laden tentacles, induced to deter
14             Instead, polyps transformed into stolons and then budded polyps.
15 ed miR156 accumulation accompanied by aerial stolons and tubers from axillary nodes, similar to miR15
16 d a significant reduction in LOX activity in stolons and tubers.
17 ofiled ~200,000 Hydractinia cells, including stolons and two polyp types, identifying major cell type
18 scripts was restricted to developing tubers, stolons, and roots and that mRNA accumulation correlated
19                                              Stolons appear to be juvenilized zooids and to originate
20                          Although individual stolons are eventually overgrown by conspecifics, they r
21           We conclude that StPP2Ac2b acts in stolons as a positive regulator tuber induction, integra
22 consist of zooids (polyps) interconnected by stolons attached to the substrate.
23                             As the degree of stolon branching influences the number and size distribu
24 3'-untranslated region, are not expressed in stolons but display a gradual increase in expression lev
25                                              Stolons can be produced by colonies of Membranipora memb
26 nvertase in the subapical region of swelling stolons, consistent with the switch from apoplastic to s
27                       Here, we show that the stolon deficiency trait of the runnerless (r) natural mu
28 ogy of potato plants and also in controlling stolon development and maintaining tuber dormancy.
29  tuberosum), tubers develop from underground stolons, diageotropic stems which originate from basal s
30  axillary meristem is essential for inducing stolon differentiation.
31                                              Stolons (elongated stems) are used for asexual reproduct
32 daughter plants), with gibberellin promoting stolon fate.
33  abolished GA20ox4 expression and eliminated stolon formation, a phenotype rescued by exogenous gibbe
34 d main branches than control plants, reduced stolon formation, together with a dwarfing phenotype and
35 ctivate gibberellin biosynthesis and promote stolon formation.
36 ction of GA20ox4 expression and the onset of stolon formation.
37 specific regulator controlling the switch to stolon formation.
38  The expression profile of StBEL5 induced in stolons from plants grown under long-day conditions reve
39                                              Stolons from StPP2Ac2b-OE plants show higher tuber induc
40 ly propagated by daughter-plants produced by stolons, fruit yield is further dependent on the trade-o
41  strategy of large colonies, we suggest that stolons function to limit space occupied by small coloni
42 ectly antagonising the function of StSP6A in stolons, identifying StCEN as a breeding marker to impro
43 at is transcribed in leaves, moves down into stolons in response to short days, and induces tuber for
44 ion during the developmental transition from stolons into tubers, in which there is an increased dema
45  originates in the leaf, and its movement to stolons is induced by a short-day photoperiod.
46 d seven distinct interacting proteins from a stolon library of potato.
47 a complex life history of multigenerational, stolon-like asexual reproduction, interspersed with disp
48      GA up-regulates StPP2Ac2b expression in stolons, possibly as part of the feedback system by whic
49                               In strawberry, stolon production is essential for vegetative propagatio
50                                        Since stolon production is primarily a strategy of large colon
51 al programme by which cells in the subapical stolon region divide and radially expand to further diff
52  blastema developed at the aboral pole after stolon removal.
53 s and (14)C sugar partitioning in tuberizing stolons revealed a distinct difference between the apica
54 ase activity in nontuberizing and tuberizing stolons revealed a marked decline in soluble invertase i
55                           We uncover a novel stolon-specific cell type linked to biomineralization an
56 e within the family, such as modified stems (stolons) that develop into edible tubers.
57 ) gene was obtained while screening a potato stolon tip cDNA expression library with 35S-labeled calm
58 formation by mediating hormone levels in the stolon tip.
59 udied with higher expression in the stem and stolon tip.
60 NA resulted in its preferential transport to stolon tips and enhanced tuber production.
61 ease in the levels of GA 20-oxidase1 mRNA in stolon tips from long-day plants.
62 t but insensitive to photoperiod, whereas in stolon tips growing in the dark, promoter activity is en
63                      This movement of RNA to stolon tips is correlated with enhanced tuber production
64 the induction of StBEL5 promoter activity in stolon tips under short days.
65 preferential accumulation of the BEL5 RNA in stolon tips under short-day conditions.
66 ecific promoter, the movement of BEL5 RNA to stolon tips was facilitated by a short-day photoperiod,
67 tBEL5 transcripts move through the phloem to stolon tips, the site of tuber induction.
68 and move across a graft union to localize in stolon tips, the site of tuber induction.
69 and move across a graft union to localize in stolon tips, the site of tuber induction.
70 reased by almost 80% during development from stolons to mature tubers but it increased about seven-fo
71 anscribed in leaves and moves into roots and stolons to stimulate growth.
72 n gene expression during the transition from stolons to tubers coincides with an increase of histone
73  in abundance of miR156 has been observed in stolons under tuber-inductive (short-day) conditions, in
74                                           In stolons undergoing extension growth, apoplastic phloem u
75 lants, StMSI1 and miR156 levels increased in stolon, whereas StBMI1-1 decreased under SD conditions.
76 port of their mRNAs from leaves to roots and stolons, whereas suppression lines of these two RNAs exh
77 ze of interacting colonies determine whether stolons will be produced.
78 ion rates in vitro, as compared to wild type stolons, with no differences in the number of tubers obt