File list
This special page shows all uploaded files.
| Date | Name | Thumbnail | Size | User | Description | Versions |
|---|---|---|---|---|---|---|
| 12:58, 7 June 2014 | Figure 1. A. Schematic representation of OsFOR1.jpg (file) |  |
193 KB | Liangcheng | 1 | |
| 13:30, 7 June 2014 | Floral phenotype of the sl1 mutant.png (file) |  |
191 KB | Somnussunshine | Floral phenotype of thesl1mutant. | 1 |
| 13:31, 7 June 2014 | Scanning election micrographs of sl1 flowers.png (file) |  |
347 KB | Somnussunshine | Scanning electron micrographs ofsl1flowers. | 1 |
| 13:32, 7 June 2014 | Molecular cloning of SL 1.png (file) |  |
74 KB | Somnussunshine | Molecular cloning ofSL1. | 1 |
| 13:34, 7 June 2014 | Floral morphology of SL1 over-expressors.png (file) |  |
282 KB | Somnussunshine | Floral morphology ofSL1over-expressors. | 2 |
| 13:36, 7 June 2014 | SL 1 encodes a zinc finger protein with a single C2H2 motif.png (file) |  |
191 KB | Somnussunshine | SL1encodes a zinc finger protein with a single C2H2 motif. | 2 |
| 13:41, 7 June 2014 | Regulation of rice floral homeotic genes by SL 1.png (file) |  |
36 KB | Somnussunshine | Regulation of rice floral homeotic genes by SL 1. | 1 |
| 13:45, 7 June 2014 | Semi-quantitative RT-PCR analysis of SL 1 and SPW1 OsMADS 16 expression.png (file) |  |
39 KB | Somnussunshine | Semi-quantitative RT-PCR analysis of SL 1 and SPW1 OsMADS 16 expression. | 4 |
| 13:45, 7 June 2014 | SL 1 expression in sl 1 flowers and wild-type revrealed by in situ hybridization.png (file) |  |
335 KB | Somnussunshine | SL 1 expression in sl 1 flowers and wild-type revrealed by in situ hybridization. | 1 |
| 13:46, 7 June 2014 | Possible roles for SL 1 in rice floral organ formation.png (file) |  |
23 KB | Somnussunshine | Possible roles for SL 1 in rice floral organ formation. | 1 |
| 13:48, 7 June 2014 | Figure 4. Expression pattern of OsFOR1.png (file) |  |
48 KB | Liangcheng | 1 | |
| 13:53, 7 June 2014 | Figure 6. Phenotypes of OsFOR1antisense transgenic spikelets.png (file) |  |
1.16 MB | Liangcheng | 1 | |
| 14:06, 7 June 2014 | Oshox22 binding.jpg (file) |  |
47 KB | Liujia | 1 | |
| 14:15, 7 June 2014 | Expression and activity of SKC1-GFP fusion proteins in X.laevis oocytes..jpg (file) |  |
12 KB | Liushuaiye | Expression_and_activity_of_SKC1-GFP_fusion_proteins_in_X.laevis_oocytes..jpg | 1 |
| 14:15, 7 June 2014 | Figure1. Indica FOS1 suppresses the floral phenotypes caused by the fon2 or fon1 mutation.jpg (file) |  |
105 KB | Zhuping | 2 | |
| 14:16, 7 June 2014 | Identification of the SKC1 QTL and genetic complementation.jpg (file) |  |
15 KB | Liushuaiye | Identification_of_the_SKC1_QTL_and_genetic_complementation.jpg | 1 |
| 14:16, 7 June 2014 | K+ and na+ contents in rice and function analysis of SKC1 in oocytes..jpg (file) |  |
24 KB | Liushuaiye | K+_and_na+_contents_in_rice_and_function_analysis_of_SKC1_in_oocytes..jpg | 1 |
| 14:16, 7 June 2014 | SKC1 promoter–GUS expression pattern in transgenic rice plants.jpg (file) |  |
15 KB | Liushuaiye | SKC1_promoter–GUS_expression_pattern_in_transgenic_rice_plants.jpg | 1 |
| 14:17, 7 June 2014 | Structural model and expression of SKC1..jpg (file) |  |
21 KB | Liushuaiye | Structural_model_and_expression_of_SKC1..jpg | 1 |
| 14:31, 7 June 2014 | Figure 4. Characteristics of FOS1 protein.jpg (file) |  |
39 KB | Zhuping | 2 | |
| 14:56, 7 June 2014 | Oshox22 structure.jpg (file) |  |
235 KB | Liujia | 1 | |
| 15:47, 7 June 2014 | Os03g0226800 1.jpg (file) |  |
59 KB | Jin Xiaoyang | A phylogenetic tree of eukaryotic DNA methyltransferases. The tree is based on the conserved catalytic domains of Dnmt1, CMT, Dim-2 and Dnmt3 proteins, with bacterial methyltransferases included as an outgroup. Conserved domains were aligned using MUSCLE | 1 |
| 15:49, 7 June 2014 | Os03g0226800 2.JPG (file) |  |
61 KB | Jin Xiaoyang | The evolution of eukaryotic DNA methylation. Circles with 1, 3, CMT, DIM and C/D represent Dnmt1, Dnmt3, CMT, Dim-2 and CMT/Dim-2, respectively. Circles with white Xs represent loss of the indicated gene family. Red and green lines indicate the evolutiona | 1 |
| 15:50, 7 June 2014 | Os03g0226800 3.JPG (file) |  |
38 KB | Jin Xiaoyang | 1 | |
| 16:50, 7 June 2014 | Supplementary fig 8.png (file) |  |
365 KB | Wlulu0626 | Figure1. Multiple alignments of COX11 protein sequences of five plant species and yeast. Accession numbers of the protein sequences are given in parenthesis: OsCOX11 of O. sativa (ABF98570), ZmCOX11 of Zea mays (ACG32461), SbCOX11 of Sorghum bicolor ( | 1 |
| 17:17, 7 June 2014 | Figure1-d.png (file) |  |
128 KB | Wlulu0626 | figure1-d OsCOX11 RNAi was driven by the rice RTStapetum-specific promoter | 1 |
| 01:46, 8 June 2014 | Impaired Root Growth of rss3 under Salinity Conditions.jpg (file) |  |
105 KB | Xiaowugui9 | 3 | |
| 01:54, 8 June 2014 | Supplementary fig 9.png (file) |  |
67 KB | Wlulu0626 | Figure 3 Expression of OsCOX11 in various tissues of ZS97B. The expression of OsCOX11(Os03g0718600, up panel) was assayed by semi-qRT-PCR, with 32 cycles for OsCOX11and 27 cycles for OsActin1. | 1 |
| 01:58, 8 June 2014 | Ng.2570-F3.jpg (file) |  |
319 KB | Wlulu0626 | Figure 4 WA352 interacts with the nuclear-encoded mitochondrial protein COX11. (a) Interaction of WA352 with COX11 proteins of rice and A. thalianaby Y2H assay and mapping of WA352 regions (shaded) for the interaction. The combination of WA352 with the em | 1 |
| 02:00, 8 June 2014 | Supplementary fig 10.png (file) |  |
94 KB | Wlulu0626 | Figure 5 Excitation/emission spectrum analysis of the BiFC signal and fluorescent proteins expressed in the transformed rice protoplasts. (a) The emission signal peak of MTS-mOrange, excited by 543-nm laser, was detected at 565 nm. (b) OsCOX11-CFP wa | 1 |
| 02:03, 8 June 2014 | RSS3 Encodes a Nuclear Protein Homologous to the Regulatory Domains of RB-Like bHLH Proteins.jpg (file) |  |
147 KB | Xiaowugui9 | (A) Map-based cloning of RSS3 (top) and the schematic representation of the RSS3 gene structure (bottom). The rss3 locus was delimited between the indicated markers. The chromosomal position of the markers and the number of F2 lines exhibiting the rss3 ph | 1 |
| 02:17, 8 June 2014 | Figure1. RSS3, bHLH, and JAZ Form a Ternary Complex.jpg (file) |  |
150 KB | Xiaowugui9 | (A) Yeast three-hybrid assay to verify interaction of RSS3N318, bHLH094, and JAZ9. Representative results of more than six independent transformants are shown for each combination. D21 represents the 21–amino acid deletion mimicking rss3 mutation. The c | 1 |
| 02:17, 8 June 2014 | Figure2. RSS3 and JAZ9 together Suppress bHLH094-Mediated Gene Activation.jpg (file) |  |
133 KB | Xiaowugui9 | (A) bHLH094 enhances the activity of the gene promoter containing E-box (CANNTG). (B) A combinational expression of RSS3 and JAZ9 suppresses the bHLH094-mediated gene activation driven by the promoter containing G-box (CACGTG). Effector plasmids containi | 1 |
| 02:35, 8 June 2014 | Fig1astro.jpg (file) |  |
64 KB | Astronerd | Fig. 1 HAP genes in rice. Schematic presentation of OsHAP2 proteins (a), OsHAP3 proteins (b) and OsHAP5 proteins (c). Shaded boxes indicate conserved domains in each HAP subunit. Boxes with a one-letter code of amino acid residues indicate stretches of fi | 1 |
| 02:38, 8 June 2014 | 1.gif (file) |  |
191 KB | Jieomlong | 1 | |
| 02:39, 8 June 2014 | RSS3 and JAZ9 together Suppress bHLH094-Mediated Gene Activation.jpg (file) |  |
133 KB | Xiaowugui9 | (A) bHLH094 enhances the activity of the gene promoter containing E-box (CANNTG). (B) A combinational expression of RSS3 and JAZ9 suppresses the bHLH094-mediated gene activation driven by the promoter containing G-box (CACGTG). Effector plasmids containi | 2 |
| 02:46, 8 June 2014 | Hj.jpg (file) |  |
39 KB | Hermione | 1 | |
| 02:48, 8 June 2014 | Exkl.jpg (file) |  |
24 KB | Hermione | 1 | |
| 02:49, 8 June 2014 | Examplo.jpg (file) |  |
59 KB | Hermione | 1 | |
| 02:52, 8 June 2014 | Map-based cloning and characteriztion of TAD1.png (file) |  |
124 KB | Somnussunshine | Map-based cloning and characterization of TAD1. | 1 |
| 02:52, 8 June 2014 | Expression patterns of TAD1.png (file) |  |
234 KB | Somnussunshine | Expression patterns of TAD1. | 1 |
| 02:53, 8 June 2014 | Rice1.jpg (file) |  |
273 KB | Suli | 1 | |
| 02:53, 8 June 2014 | Expression of TAD1 during the cell-cycle progression and phenotypes of TAD1-overexpressing transgenic plants.png (file) |  |
91 KB | Somnussunshine | Expression of TAD1 during the cell-cycle progression and phenotypes of TAD1-overexpressing transgenic plants. | 1 |
| 02:53, 8 June 2014 | Deternination of the interaction between TAD1 and MOC1 by coimmunoprecipitation and BiFC assays.png (file) |  |
151 KB | Somnussunshine | Deternination of the interaction between TAD1 and MOC1 by coimmunoprecipitation and BiFC assays. | 1 |
| 02:54, 8 June 2014 | TAD1 targets MOC1 in a cell-cycle phase-dependent manner.png (file) |  |
122 KB | Somnussunshine | TAD1 targets MOC1 in a cell-cycle phase-dependent manner. | 1 |
| 02:54, 8 June 2014 | The APC C(TAD1) complex-mediated degradation of MOC1.png (file) | _complex-mediated_degradation_of_MOC1.png) |
159 KB | Somnussunshine | The APC C(TAD1) complex-mediated degradation of MOC1. | 1 |
| 03:23, 8 June 2014 | Rice2.jpg (file) |  |
164 KB | Suli | 1 | |
| 03:23, 8 June 2014 | Rice3.jpg (file) |  |
78 KB | Suli | 1 | |
| 03:24, 8 June 2014 | Rice4.jpg (file) |  |
458 KB | Suli | 1 | |
| 04:11, 8 June 2014 | Chitin signaling.JPG (file) |  |
46 KB | Luoxuming | an OsCEBiP/OsCERK1-OsRacGEF1-OSRac1 model | 1 |
