Results 21 to 30 of about 116,676 (240)
Characteristics of the tomato chromoplast revealed by proteomic analysis [PDF]
, 2010 Chromoplasts are non-photosynthetic specialized plastids that are important in ripening tomato fruit (Solanum lycopersicum) since, among other functions, they are the site of accumulation of coloured compounds.Barsan, Cristina, Bouzayen, Mondher, Egea, Isabel, Kuntz, Marcel, Latché, Alain, Pech, Jean-Claude, Rombaldi, César Valmor, Rossignol, Michel, Sánchez-Bel, Paloma, Zouine, Mohamed +9 morecore +3 more sourcesDefining the core proteome of the chloroplast envelope membranes [PDF]
, 2013 High-throughput protein localization studies require multiple strategies. Mass spectrometric analysis of defined cellular fractions is one of the complementary approaches to a diverse array of cell biological methods. In recent years, the protein content Ibrahim, Mohamed, Karas, Michael, Leisegang, Matthias, Mirus, Oliver, Müller, Bernd, Papasotiriou, Dimitrios, Schleiff, Enrico, Schorge, Tobias, Simm, Stefan, Sommer, Maik Sascha +9 morecore +2 more sourcesTomato: a crop species amenable to improvement by cellular and molecular methods [PDF]
, 1989 Tomato is a crop plant with a relatively small DNA content per haploid genome and a well developed genetics. Plant regeneration from explants and protoplasts is feasable which led to the development of efficient transformation procedures.A. Crossway, A. Guri, A. Hoekema, A. Kinshara, A. Morgan, A. Zelcer, A.H. Paterson, A.J. Framond De, A.L. Phillips, A.L. Phillips, A.R. Krol Van der, B. Baker, B. Baker, B. Hause, B. McClintock, B. Piechulla, B.A. Levenko, B.D. Harrison, B.L. Ward, B.P. Moens, B.R. Thomas, B.R. Thomas, B.S. Gill, B.S. Landry, B.S. Landry, B.S. Landry, C. Chang, C. Pieterse, C. Waldron, C.D. Riggs, C.E. Vallejos, C.E. Vallejos, C.J.S. Smith, C.M. Rick, C.M. Rick, C.M. Rick, C.M. Rick, C.M. Rick, C.M. Rick, C.M. Rick, C.M. Rick, C.M. Smith, C.P. Meredith, D. Boer De, D. Botstein, D. Shah, D. Zamir, D. Zamir, D. Zamir, D.A. Evans, D.A. Evans, D.M. Barker, D.M. Lonsdale, D.P. Barlow, D.W. Barton, D.W. Galbraith, E. Haute Van, E. Pichersky, E.A. Frankenberger, E.A. Frankenberger, E.A. Shahin, E.A. Shahin, E.C. Tigchelaar, F.J. Zapata, G. Gavazzi, G. Melchers, G. Schweizer, G.S. Khush, G.S. Khush, H.P. Mühlbach, I. Negrutiu, I.M. Greenblat, J. Botterman, J. Haseloff, J. Hille, J. Hille, J. Paszkowski, J. Phillips, J. Wijbrandi, J.D. Palmer, J.D. Palmer, J.D. Palmer, J.D. Palmer, J.F. Gusella, J.F. Gusella, J.F. Shepard, J.G. Atherton, J.H. Hawkes, J.I. Yoder, J.J. Fillatti, J.L. Bennetzen, J.M. van Montagu Schell, J.S. Beckmann, J.S. Beckmann, J.W. Maxon-Smith, J.W. Verna De, Jacoues Hille, K. Ohyama, K. Shinozaki, K. Umesono, K.A. Darden, K.K. Kartha, L. Herrera-Estrella, L. Herrera-Estrella, L. Marton, L.A. Miki, L.P. Hosticka, L.W. Handley, M. Block De, M. Buiatti, M. Buiatti, M. Cuozzo, M. Jongsma, M. Koornneef, M. Koornneef, M. Mutschler, M. S. Ramanna, M. Sibi, M. Soller, M. Vaeek, M. Wallroth, M. Ziv, M.A. O'Connell, M.A. O'Connell, M.A. O'Connell, M.A. O'Connell, M.A. Sluys Van, M.A. Stevens, M.A. Stevens, M.D. Bennett, M.L.M.C. Tan, M.L.M.C. Tan, M.R. Hanson, M.S. Ramanna, M.S. Ramanna, M.S. Ramanna, M.W. Bevan, M.W. Ganal, M.Y. Menzel, Maarten Koornneef, N.A. Zagorska, N.D. Young, N.D. Young, N.E. Tumer, N.V. Federoff, P. Little, P. Zambryski, P.E. McClean, P.F. Ambros, P.G. Smith, P.J.M. Elzen Van den, P.J.M. Elzen Van den, P.M. Gresshoff, Pim Zabel, R. Bernatzky, R. Bernatzky, R. Ecochard, R. Hain, R. Niedz, R.A. Bressan, R.A.J. Daelen Van, R.B. Flavell, R.B. Horsch, R.D. Locky, R.D. Shillito, R.S. Nelson, R.T. Fraley, S. Dellaporta, S. McCormick, S. Ohki, S.D. Tanksley, S.D. Tanksley, S.D. Tanksley, S.D. Tanksley, S.D. Tanksley, S.D. Tanksley, St.G. Rogers, T. Helentjaris, T. Helentjaris, T. Helentjaris, T.C. Osborn, T.L. Adams, T.M. Klein, U. Wienand, V. Padmanabhan, V.A. Hilder, W. Gottschalk, W. Gruissem, W.L. Gerlach, W.R. Sharp, Y.S. Chyi, Z. Koukolikova-Nicola, Z. Tabaeizadeh +192 morecore +3 more sourcesGene duplicability of core genes is highly consistent across all angiosperms [PDF]
, 2016 Gene duplication is an important mechanism for adding to genomic novelty. Hence, which genes undergo duplication and are preserved following duplication is an important question. It has been observed that gene duplicability, or the ability of genes to be De Smet, Riet, Defoort, Jonas, Li, Zhen, Maere, Steven, Tasdighian, Setareh, Van de Peer, Yves +5 morecore +4 more sourcesChloroplast microsatellites: measures of genetic diversity and the
effect of homoplasy [PDF]
, 2005 Chloroplast microsatellites have been widely used in population genetic
studies of conifers in recent years. However, their haplotype configurations
suggest that they could have high levels of homoplasy, thus limiting the power
of these molecular markers.Doyle JJ, Estoup A, Fowler DP, Goldstein DB, Harding RM, Hudson RR, MacDonald GM, Mantel NA, Morgante M, Muona O, Nei M, Powell W, Provan J, Savolainen O, Shigesada N, Tachida H +15 morecore +4 more sourcesBacteria and Fungi Synergistically Reprogram Flavonoid Metabolites in the Pericarp of Citrus Reticulata 'Chachi' During Storage
Advanced Science, EarlyView.The authors employed widely targeted metabolomics, microbial amplicon sequencing, and fermentation assays to investigate the microbiome 's influence on PCRC 's (pericarp of Citrus reticulata ' Chachi ') flavonoid profile over 0–19 years of storage. Based on the correlation analysis, solid‐state and liquid‐state fermentation, and catalytic activity ...Jianmu Su, Sisheng Zhang, Lidi Liang, Haiyi Bai, Mei Bai, Hanjun He, Yayu Wang, Huan Liu, Xiangxiu Liang, Yu Sun, Hong Wu +10 morewiley +1 more sourceNCP activates chloroplast transcription by controlling phytochrome-dependent dual nuclear and plastidial switches. [PDF]
, 2019 Phytochromes initiate chloroplast biogenesis by activating genes encoding the photosynthetic apparatus, including photosynthesis-associated plastid-encoded genes (PhAPGs).Cao, Jun, Chen, Meng, Li, Fay-Wei, Liu, Jiangxin, Pryer, Kathleen M, Sun, Tai-Ping, Wang, He, Weigel, Detlef, Yang, Emily J, Yoo, Chan Yul, Zhou, Pei +10 morecore +2 more sourcesIntegrated Single‐Cell and Spatial Transcriptomics Reveal Cell‐Type‐Specific Immune Regulatory Networks in Maize Responding to Southern Corn Rust
Advanced Science, EarlyView.By integrating single‐nuclei and spatial transcriptomics, this study presents a stereoscopic landscape of maize leaf to Puccinia polysora infection. Epidermal and mesophyll cells initiate primary defenses via RLPs/RLKs and jasmonic acid signaling. Cell‐cell communication analyses further reveal the underlying the dynamics of the underlying immune ...Qiongqiong Wang, Xinyan Sun, Yingchao Sun, Zeqiang Cheng, Zixiang Cheng, Shengbo Han, Ying Feng, Wenbo Yang, Huimin Li, Meichen Zhu, Xiaoling Wu, Jinghua Zhang, Jihua Tang, Honglian Li, Yanyong Cao, Canxing Duan, Yan Shi +16 morewiley +1 more sourceChloroplast Stress Signals Orchestrate Epidermis‐Specific Remodeling of Mitochondria and ER Under High Light
Advanced Science, EarlyView.High light exposure triggers an epidermis‐specific remodeling of mitochondria and ER in Arabidopsis, driven by chloroplast‐derived signals. Live‐cell imaging shows that HL rapidly suppresses mitochondrial motility, followed by fusion‐driven elongation and ER cisternal expansion.Evan R. Angelos, Hee‐Seung Choi, Jingzhe Guo, Andrea A. Zanini, Tessa M. Burch‐Smith, Emily Snyder, Matthew Part, Wilhelmina van de Ven, Manhoi Hur, Gerd Ulrich Balcke, Alain Tissier, Quanqing Zhang, Katayoon Dehesh +12 morewiley +1 more sourceSingle‐Cell Transcriptomics Reveals FLS2‐Dependent Hypoxia Signaling and ERF13‐Mediated Transcription During flg22‐Triggered Immunity
Advanced Science, EarlyView.This study employs sc‐RNA sequencing, genetics, and phenotyping to systematically map the cell‐type‐specific immune responses triggered by flg22. It reveals FLS2‐dependent transcriptional reprogramming in epidermal and mesophyll cells, and uncovers crosstalk between immune and hypoxia signaling pathways.Yaping Zhou, Aizhi Qin, Mengfan Li, Qianli Zhao, Luyao Kong, Lulu Yan, Chunyang Li, Hao Liu, Yinpeng Zhang, Jiani Long, Mengyu Liao, Mengmeng Zhou, Xiaoli Fan, Baozhen Wang, Wenxuan Kang, Shui Wang, Zhixin Liu, Xuwu Sun +17 morewiley +1 more source