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1 phological diversities between maize ear and tassel.
2 hanges in leaf and ear but relatively few in tassel.
3 in an implementation of the software program TASSEL.
4 of expression in cob glumes, husk, silk, and tassel.
5 ue that otherwise would form the base of the tassel.
6  the earliest known cobs, husks, stalks, and tassels.
7 sion of aox1 is detected only in NCS and CMS tassels.
8 wers initiated in ears and in all flowers in tassels.
9 , MLMM, FarmCPU, and BLINK), three models in TASSEL 5 (SMR, GLM, and MLM), and three models in rMVP (
10 ySNP50K iSelect SNP BeadChip, using both the TASSEL 5.0 and FarmCPU techniques.
11 wo staminate florets in each spikelet on the tassel and a single pistillate floret in each spikelet o
12 rs through abortion of female carpels in the tassel and arrest of male stamens in the ear.
13 ypes include increased numbers of flowers in tassel and ear spikelets, disrupted rowing in the ear, f
14 antly lack long branches, giving rise to the tassel and familiar corncob.
15 es are few and upright in the wab1 revertant tassel and have an increased branch angle in the dominan
16                  In germinal cells, immature tassel and mature pollen, reporter expression increases
17 rly development of maize inflorescences, the tassel and the ear, and has been implicated in the evolu
18 espread sterility in its inflorescences, the tassel and the ear.
19 chitecture of maize inflorescences, the male tassel and the female ear, is defined by a series of rei
20 ucted molecular ontogenies from 40 B73 maize tassels and 47 BTx623 sorghum panicles and separated the
21 s in other developing tissues, including the tassels and juvenile leaves.
22   These patterns are consistent across leaf, tassel, and immature ear libraries, but particularly emp
23 e (Zea mays), 94 RNA-seq libraries from ear, tassel, and leaf of the B73 public inbred line were cons
24                      In the maize (Zea mays) tassel, application of GA alters floral development, res
25 entially expressed genes determining ear and tassel architecture within the 3D genome context is larg
26  flowering, endosperm composition, plant and tassel architecture, and kernel row number.
27 d WAB1 reveals a link between leaf shape and tassel architecture, and suggests the ligule is a bounda
28 esis) detect a significant effect of bif2 on tassel architecture.
29                               Maize ears and tassels are two separate types of inflorescence which ar
30 a semidwarfed mutant with fasciated ears and tassels as well as greatly enlarged vegetative and inflo
31  level of Hsp101 transcript increased in the tassel at anthesis following a heat stress without an in
32 esent at only a low level in the anthers and tassel at anthesis, mature pollen, roots, and leaves.
33 In expanding foliar leaves, husk leaves, the tassel at the premeiosis stage of development, or pre-an
34 by capturing regional differences within the tassel based on the distinct color of anthers.
35 nt, necrotic upper tips1 (nut1), that mimics tassel blasting and drought stress and reveals the genet
36  and sterility, a stress condition known as "tassel blasting." We identified a mutant, necrotic upper
37           All mutants showed extremely acute tassel branch angles accompanied by a significant reduct
38         Double mutants display a decrease in tassel branch number and an increase in ear row number,
39                                 For example, tassel branch number controls pollen abundance and lengt
40 tive trait loci (QTL) for ear row number and tassel branch number in both the nested association mapp
41 ributes to pleiotropy between leaf angle and tassel branch number, two agronomic traits.
42 y, loss of a single copy of rs1 enhances the tassel branch reduction phenotype, while loss of both co
43 The Mo17 allele is associated with a reduced tassel branch zone and shows lower expression than the B
44 ength, stalk circumference, leaf length, and tassel-branch number in 20 paired families that involved
45                                              Tassel branches are few and upright in the wab1 revertan
46 ces, consistent with the complete absence of tassel branches in the bif2 knockout mutant.
47 that lg2 mutant plants can have reduced long tassel branches, extra vegetative leaves and extra husk
48 t slower growth rate, later flowering, fewer tassel branches, reduced stature and fertility.
49 gule formation and in the axil of developing tassel branches.
50 cis-regulatory control of pleiotropy between tassel branching and leaf angle across maize diversity.
51  flowering result in leaf wilting, necrosis, tassel browning, and sterility, a stress condition known
52 elatively high levels of aox2 mRNAs in young tassels but none in ear shoots.
53 , a 12-band Sentinel-2 composite and derived tasselled cap components, and a Sentinel-1 VV-polarisati
54 of differentially expressed genes in ear and tassel controlling inflorescence architecture.
55             This suppression persists during tassel development and does not appear to be released un
56 er of vegetative nodes before it switches to tassel development.
57 heir maize homologs knotted1 (kn1) and thick tassel dwarf1 (td1).
58  protein was most abundant in the developing tassel, ear, silks, endosperm, and embryo.
59 orthern hybridizations of mutant leaf, root, tassel, endosperm and embryo tissues with non-specific S
60 yping accuracy varied according to whether a tassel exhibited "open" versus.
61 ted plants (n = 780) that was phenotyped for tassel fertility, plants containing F187 were completely
62 ned for recombinants and then phenotyped for tassel fertility, resulting in a final map-based cloning
63  does not affect tumor formation in immature tassel floral tissues, where maize cell proliferation oc
64 naling, resulting in short plants and normal tassel floret development in the presence of excess GA.
65 ment (e.g., height and pistil persistence in tassel florets).
66 drl2 are required for development of ear and tassel florets.
67                              The maize fuzzy tassel (fzt) mutant contains a hypomorphic mutation in D
68                              The maize fuzzy tassel (fzt) mutant has striking inflorescence defects w
69 elded on average three times as many SNPs as TASSEL-GBS analyses (32 and 64 bp tag lengths) and over
70 version of GBS-SNP-CROP behaved similarly to TASSEL-GBS in terms of the number of SNPs called but had
71 nd largely environment dependent for days to tassel, grain moisture and ear number.
72                    Staminate florets of drl1 tassels have extra stamens and fertile anthers.
73 al maize (Zea mays) ears are unbranched, and tassels have long branches only at their base.
74  and has fewer branches and spikelets in the tassel, indicating that ba2 functions in reproductive AM
75  expressed during the development of ear and tassel inflorescences.
76  defects, including formation of a feminized tassel, initiation of female reproductive buds at each n
77                         The maize (Zea mays) tassel-less1 (tls1) mutant has defects in vegetative and
78 cences, which are programmed to develop into tassels (male) in teosinte, to become ears (female) in m
79 , and (iii) Bt pollen contaminated with corn tassel material applied directly to milkweed leaf discs.
80 ypic syndrome that includes reduced stature, tassel morphology changes and the presence of knots on t
81 howed moderate effects on flowering time and tassel morphology, whereas ZCN3 and ZCN6 did not change
82 e flowering time but still showed effects on tassel morphology.
83 e architectures in which cylindrical micelle tassels of controlled length are grown from specific cry
84                Gene expression in developing tassels of D8-Mpl and D9-1 mutants and their wild-type s
85 arge number of genes have been identified as tassel-preferred in their expression pattern, both by tr
86 n regions (OCRs) in developing maize ear and tassel primordia using ATAC-seq and characterize combina
87                                       Mutant tassels produce fewer branches and spikelets.
88                          Analysis of ear and tassel QTL across biparental families suggests that mult
89  attained by direct binding of NtBRCs to the Tassels Replace Upper Ears 1 (TRU1) genes.
90 suppression through direct activation of the tassels replace upper ears1 (tru1) gene that encodes an
91            Ectopic expression of ids1 in the tassel, resulting from a failure of regulation by the ta
92 pressed in endosperm, embryo, immature ears, tassel, roots, and seedling shoots at low levels.
93  Double-mutant analysis with anther ear1 and tassel seed2 revealed that the sex of the axillary inflo
94               We identified maize (Zea mays) tassel sheath (tsh) mutants, characterized by the loss o
95 OSA ortholog Zea mays mads16 (Zmm16)/sterile tassel silky ear1 (sts1).
96  using multiple models tested with GAPIT and TASSEL software.
97 -loop-helix (bHLH) transcription factor with tassel-specific expression.
98 -regulatory modules responsible for ear- and tassel-specific gene expression.
99 lets and the abortion of pistils in both the tassel spikelets and in the secondary florets of ear spi
100  in the primary and secondary florets of the tassel spikelets, and in the secondary florets of ear sp
101           Daily LAI retrievals peaked at the tasseling stage, demonstrating their value for fertilize
102 osase mRNA levels between LAG1-O and lag1(+) tassels, suggesting that suppression is post-transcripti
103                                              TASSEL (Trait Analysis by aSSociation, Evolution and Lin
104 measurement errors for five maize (Zea mays) tassel traits collected using an image-based phenotyping
105 ssociation studies (GWASs) conducted on five tassel traits that had been phenotyped both manually (i.
106 bp tag lengths) and over 18 times as many as TASSEL-UNEAK, with fewer genotyping errors in all cases,
107 S-SNP-CROP versions significantly outperform TASSEL-UNEAK; and v.4.0 resolves the issue of non-overla
108 ) mutations permit carpel development in the tassel while increasing meristem branching, showing that
109 generally active in young leaves, silks, and tassels, while largely inactive in seeds and roots.
110 , these transgenic plants produced a "bushy" tassel with increased lateral branching and spikelet den

 
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