File list
This special page shows all uploaded files.
| Date | Name | Thumbnail | Size | User | Description | Versions |
|---|---|---|---|---|---|---|
| 14:49, 22 May 2014 | Figure 2. Analyses of ROS and Superoxide Anion levels in Wild-Type.png (file) | 488 KB | Ban Buzhu | 1 | ||
| 14:47, 22 May 2014 | Figure 1. Phenotypic Analysis of mads3-4..png (file) | 679 KB | Ban Buzhu | 1 | ||
| 13:57, 22 May 2014 | F2C.png (file) | 44 KB | Mmlin66 | (C) Phylogenetic analysis revealed that OsRad21-4 was grouped with Rec8-like proteins from other species and formed a clade with Arabidopsis Syn1. The tree was derived from the multiple alignments of N-terminal regions of OsRad21-4 and other Rad21/Rec8 se | 1 | |
| 13:38, 22 May 2014 | F10.png (file) | 647 KB | Mmlin66 | Figure 10. FISH of the centromere probe CentO in wild type (A, B) and OsRad21-4 deficient (C–F) plant male meiocytes. CentO was labeled with digoxigenin-labeled dUTP and detected with rhodamin-conjugated anti-digoxigenin antibody (red). Chromosomes wer | 1 | |
| 13:37, 22 May 2014 | F9.png (file) | 617 KB | Mmlin66 | Figure 9. Fluorescence in situ hybridization (FISH) using a probe of 25S rDNA in wild type (A, B) and OsRad21-4-deficient (C–F) plant male meiocytes. The probe was labeled with digoxigenin-labeled dUTP and detected with rhodamin-conjugated anti-digoxig | 1 | |
| 13:28, 22 May 2014 | F8.png (file) | 533 KB | Mmlin66 | Figure 8. Abnormal meiotic chromosome behavior in microsporocytes of OsRad21-4-deficient lines. Meiosis chromosome spreads were prepared from fixed anthers from the deficient lines (R1 and R5, data are shown only for R5). (A) leptonema; chromatins were | 1 | |
| 13:27, 22 May 2014 | F7.png (file) | 629 KB | Mmlin66 | Figure 7. DAPI-stained chromosome spreads of male meiocytes in wild type. (A) leptonema; (B) zygonema; (C) pachynema; (D) diplonema; (E) late diakinesis; (F) metaphase I; (G) anaphase I; (H) dyad; (I) prophase II; (J) metaphase II; (K) anaphase II; (L) te | 1 | |
| 13:07, 22 May 2014 | F4.png (file) | 831 KB | Mmlin66 | Figure 4. In situ hybridization analyses of OsRad21-4 mRNA in flowers. Traverse sections of flowers in premeiotic PMC stage (A and B), meiotic PMC stage (C). or uninucleate pollen stage (D) were hybridized with DIG-labeled antisense RNA (A, C and D) or | 1 | |
| 13:04, 22 May 2014 | F6.png (file) | 413 KB | Mmlin66 | Figure 6. Pollen viability of OsRad21-4-deficient lines was severely affected. Intact anthers in wild type (A) and deficient lines (B) were stained with TTC solution and spread gently, showing that the deficient-line anthers contained a decreased amoun | 1 | |
| 12:26, 22 May 2014 | F3b-f.jpg (file) | 45 KB | Fayer | Expression patterns of floral regulators at various stages. (a)–(f) Real-time RT-PCR analyses of OsMADS50 (a), OsMADS56 (b), OsLFL1 (c), Ehd1 (d), Hd3a (e) and RFT1 (f) at various developmental stages. | 1 | |
| 11:46, 22 May 2014 | 3b-3f.jpg (file) | 116 KB | Fayer | Expression patterns of floral regulators at various stages. (a)–(f) Real-time RT-PCR analyses of OsMADS50 (a), OsMADS56 (b), OsLFL1 (c), Ehd1 (d), Hd3a (e) and RFT1 (f) | 1 | |
| 11:42, 22 May 2014 | 3c-3f.jpg (file) | 116 KB | Fayer | Expression patterns of floral regulators at various stages. (a)–(f) Real-time RT-PCR analyses of OsMADS50 (a), OsMADS56 (b), OsLFL1 (c), Ehd1 (d), Hd3a (e) and RFT1 (f) at various developmental stages | 1 | |
| 11:22, 22 May 2014 | Picut.jpg (file) | 83 KB | Violet stone | 1 | ||
| 09:09, 22 May 2014 | Evolution fig7.jpg (file) | 22 KB | Yimoukong | 1 | ||
| 09:09, 22 May 2014 | Evolution fig6.jpg (file) | 101 KB | Yimoukong | 1 | ||
| 09:08, 22 May 2014 | Evolution fig5.jpg (file) | 36 KB | Yimoukong | 1 | ||
| 09:08, 22 May 2014 | Evolution fig4.jpg (file) | 38 KB | Yimoukong | 1 | ||
| 09:08, 22 May 2014 | Fig3A model for.jpg (file) | 22 KB | Yimoukong | 1 | ||
| 08:16, 22 May 2014 | Figure 2.Cold tolerance analysis of 35S '''''OsDREB1D''''' transgenic Arabidopsis.jpg (file) | 19 KB | Yimoukong | 1 | ||
| 08:11, 22 May 2014 | Figure 1.Over-expression of '''''OsDREB1D''''' and high-salt tolerance analysis in transgenic plants. (A) Over-expression of '''''OsDREB1D''''' gene was analyzed in transgenic Arabidopsis.png (file) | 52 KB | Yimoukong | 1 | ||
| 08:07, 22 May 2014 | Over-expression of '''''OsDREB1D''''' and high-salt tolerance analysis in transgenic plants. (A) Over-expression of '''''OsDREB1D''''' gene was analyzed in transgenic Arabidopsis.png (file) | 52 KB | Yimoukong | 1 | ||
| 08:03, 22 May 2014 | 10.png (file) | 68 KB | Jiangboling | 1 | ||
| 07:19, 22 May 2014 | Picture2.jpg (file) | ![]() |
45 KB | Yilutongxing | 1 | |
| 07:19, 22 May 2014 | Picture1.jpg (file) | 152 KB | Yilutongxing | 1 | ||
| 14:07, 21 May 2014 | Fig.5 OsGA20ox1.jpg (file) | 79 KB | Ibplimin | 1 | ||
| 14:07, 21 May 2014 | Fig.4 OsGA20ox1.jpg (file) | 171 KB | Ibplimin | 1 | ||
| 14:04, 21 May 2014 | Fig.3 OsGA20ox1.jpg (file) | 14 KB | Ibplimin | 1 | ||
| 14:00, 21 May 2014 | Fig.2 OsGA20ox1.jpg (file) | 66 KB | Ibplimin | 1 | ||
| 13:58, 21 May 2014 | Fig.1 OsGA20ox1.jpg (file) | 126 KB | Ibplimin | 1 | ||
| 12:59, 21 May 2014 | Tonglu.png (file) | 12 KB | Sherlock0088 | 1 | ||
| 12:04, 21 May 2014 | Expression2.jpg (file) | 37 KB | Potatobing | 1 | ||
| 12:03, 21 May 2014 | Structure.jpg (file) | 266 KB | Potatobing | 1 | ||
| 11:43, 21 May 2014 | Os03g0788500expression.jpg (file) | 22 KB | Potatobing | 1 | ||
| 11:14, 21 May 2014 | P4.png (file) | 48 KB | Fangjun13 | Phylogenetic tree of plant-specific LGD1 proteins | 1 | |
| 10:55, 21 May 2014 | P3.png (file) | 49 KB | Fangjun13 | Mapping of multiple transcripts | 1 | |
| 10:05, 21 May 2014 | P2.png (file) | 303 KB | Fangjun13 | Figure 2. tiller bud and internodes of lgd1 plants | 1 | |
| 10:04, 21 May 2014 | P1.png (file) | 284 KB | Fangjun13 | Figure 1. Detailed phenotypic analyses of lgd1 plants. | 1 | |
| 08:32, 21 May 2014 | Os.jpg (file) | 169 KB | Yingyingbei | Alignments of NAC domain sequences from 18 stress-inducible rice genes. The deduced amino acid sequences of the NAC domains from 18 genes were aligned using the ClustalW program. Identical and conserved residues are highlighted (gray). Signature motifs a | 1 | |
| 08:22, 21 May 2014 | Os2.jpg (file) | 134 KB | Yingyingbei | Regulated genes in roots and leaves of RCc3:OsNAC10 and GOS2:OsNAC10 plants under normal and stress conditions. The transcript levels of OsNAC10 and six target genes were determined by quantitative RT-PCR (using the primers listed in Supplemental Table S5 | 1 | |
| 08:01, 21 May 2014 | Os1.jpg (file) | 99 KB | Yingyingbei | Expression of OsNAC10 in rice under different stress conditions and in various tissues at different developmental stages.OsNAC10 is expressed predominantly in roots and panicles. | 1 | |
| 06:56, 21 May 2014 | Phylogenetic tree of the MFS1 proteins..jpg (file) | 105 KB | Greenmood | Phylogenetic tree of the MFS1 proteins. The phylogenetic tree was constructed using the maximum likelihood method based on the Jones-Taylor-Thornton matrix-based model. Gy/Mo, Gymnosperms and mosses. | 1 | |
| 06:17, 21 May 2014 | Figa.jpg (file) | 83 KB | Wurui | Cross talk between flowering-time pathways in Arabidopsis. | 1 | |
| 05:30, 21 May 2014 | O.jpg (file) | 37 KB | Paradise | 1 | ||
| 05:25, 21 May 2014 | Over.jpg (file) | 37 KB | Paradise | 2 | ||
| 05:17, 21 May 2014 | Expression of ''SNB'', ''OsIDS1'', and ''G1'' in wild-type and mfs1-1 flowers.jpg (file) | 178 KB | Greenmood | Expression of SNB, OsIDS1, and G1 in wild-type and mfs1-1 flowers. A, qPCR analysis of SNB, OsIDS1, and G1 in developing wild-type (wt) and mfs1-1 panicles at different stages. B to F, G1 expression in wild-type flowers. G to K, G1 expression in mfs1-1 fl | 1 | |
| 05:05, 21 May 2014 | Expression pattern of ''msf1''.jpg (file) | 216 KB | Greenmood | A, MFS1 expression in different tissues as detected by qPCR. R, Root; S, stem; L, leaf. B to J, In situ hybridization in wild-type panicles and flowers using an MFS1 antisense probe. bm, Branch meristem; fm, floral meristem; le, lemma; lo, lodicule; pa, p | 1 | |
| 04:47, 21 May 2014 | Phenotypes of spikelets in the wild-type and mfs1-1.jpg (file) | 175 KB | Greenmood | A and B, Wild-type spikelet. C-1, Epidermal surface of wild-type palea. C-2, Epidermal surface of wild-type lemma. D and E, Histological analysis of wild-type spikelet. F and G, mfs1-1 spikelet with a degenerated palea. H, Epidermal surface of the degene | 1 | |
| 15:34, 20 May 2014 | F4.jpg (file) | 107 KB | Mmlin66 | Figure 4. In situ hybridization analyses of OsRad21-4 mRNA in flowers. Traverse sections of flowers in premeiotic PMC stage (A and B), meiotic PMC stage (C). or uninucleate pollen stage (D) were hybridized with DIG-labeled antisense RNA (A, C and D) or | 1 | |
| 15:25, 20 May 2014 | F3C.png (file) | 44 KB | Mmlin66 | Figure3(C) Developmental regulation of OsRad21-4 expression in flowers, which were in carpel and stamen primordial formation stage (F1), premeiotic pollen mother cell (PMC) stage (F2), meiotic PMC stage (F3) or uninucleate microspore stage (F4), and matu | 1 | |
| 15:24, 20 May 2014 | F3A.png (file) | 28 KB | Mmlin66 | Figure 3. Accumulation patterns of OsRad21-4 mRNA and protein in different organs. (A) RT-PCR analyses of OsRad21-4 mRNA accumulation. PCR was performed with first-strand cDNAs synthesized with total RNA from flowers (F), leaves (L), buds. | 1 |
