Results 61 to 70 of about 107,847 (340)

Chloroplast and Cell Imaging at Submicron Resolution by Two-Photon Excitation [PDF]

, 2012
Novel, two-photon NIR excitation fluorescence correlation microspectroscopy tests and preliminary results were presented in this article with submicron resolution for concentrated suspensions of functional cells and chloroplast membranes.
I C. Baianu
core   +1 more source

Accounting for ALA Natural Mutations Enhances the Efficiency of Graphene Oxide Nanopriming in Bar‐Modified Arabidopsis

Advanced Science, EarlyView.
Nanopriming enhances plant resilience to environmental challenges; however, its effectiveness across diverse genetic backgrounds, including genetic modifications and natural variations, remains uncertain. These findings demonstrate that nanopriming improves efficacy when natural genetic variations are considered, particularly in genetically modified ...
Yining Wu, Rui Sun, Yueting Cui, Jun Qiao, Chengdong Zhang   +4 more
wiley   +1 more source

Detection of transgenic and endogenous plant DNA in blood and organs of Nile tilapia, Oreochromis niloticus fed a diet formulated with genetically modified soybean meal [PDF]

, 2015
Anxiety regarding the fate of ingested transgenic DNA in farmed fish fed genetically modified (GM) soybean meal (SBM) has been raised with regard to human consumption.
Haga Yutaka, Hirono Ikuo, Indra Suharman, Satoh Shuichi, Zainal A. Muchlisin   +4 more
core   +1 more source

Auxin‐Producing Pseudomonas Recruited by Root Flavonoids Increases Rice Rhizosheath Formation through the Bacterial Histidine Kinase Under Soil Drying

Advanced Science, EarlyView.
Drought is a major cause of crop losses across agricultural regions. Rhizosheath formation enhances plant resistance to drought. Polyploids may tolerate stress more effectively through increased interactions with bacteria. However, the contributions of tetraploid rice associated microbiota to rhizosheath formation under soil drying remain unclear ...
Feiyun Xu, Yongsen Wang, Jinyong Yang, Xue Zhang, Ke Wang, Fan Ding, Jiayin Pang, Lu Tong, Chuqi Bai, Shu Chen, Leyun Sun, Chongxuan Du, Ju Fang, Mengqiang Xu, Liang Li, Xin Yu, Jiahong Gengli, Jianping Liu, Qian Zhang, Zhengrui Wang, Yiyong Zhu, Huanyuan Zhang‐Zheng, Jianhua Zhang, Weifeng Xu   +23 more
wiley   +1 more source

Phylogeny of Prokaryotes and Chloroplasts Revealed by a Simple Composition Approach on All Protein Sequences from Complete Genomes Without Sequence Alignment [PDF]

, 2005
The complete genomes of living organisms have provided much information on their phylogenetic relationships. Similarly, the complete genomes of chloroplasts have helped to resolve the evolution of this organelle in photosynthetic eukaryotes.
C Lemieux, CR Woese, CR Woese, D Sankoff, DH Moreira, E Chatton, E Mayr, E Pennisi, F Tekaia, FitchWM, GI McFadden, GI McFadden, GW Stuart, GW Stuart, J Adachi, J Las Rivas De, J Lin, J Qi, J Qi, J.Q. Deng, JA Eisen, JD Palmer, JR Brown, K.H. Chu, KH Chu, L.Q. Zhou, M Li, M Turmel, M Turmel, MA Ragan, MW Gray, MW Gray, N Saitou, O Weiss, RF Doolittle, RF Doolittle, RL Charlebois, RS Gupta, S.C. Long, ST Fitz-Gibbon, SV Edwards, V.V. Anh, VL Stirewalt, W Martin, W Martin, W Martin, Z.G. Yu, ZG Yu, ZG Yu, ZG Yu, ZG Yu   +50 more
core   +3 more sources

Hydrogen‐Producing Catalysts Based on Ferredoxin Scaffolds

Advanced Science, EarlyView.
Selected plant‐type ferredoxins that lack their natural [2Fe‐2S] clusters functionally bind a hydrogenase active site cofactor and act as hydrogenases themselves. In combination with photosystem I, the light‐dependent H₂ evolution almost matches the H₂ production rates of the natural system.
Yiting She, Vera Engelbrecht, Jacek Kozuch, Ulf‐Peter Apfel, Sven T. Stripp, Anja Hemschemeier, Thomas Happe   +6 more
wiley   +1 more source

Tomato: 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 more
core   +3 more sources

TaPPR13, a Pentatricopeptide Repeat Protein Gene Activated by TaBZR2, Confers Drought Stress Tolerance by Enhancing the Antioxidant Defense System and Promoting Retrograde Signaling in Wheat (Triticum aestivum)

Advanced Science, EarlyView.
TaPPR13, a PPR protein family gene in wheat is activated by TaBZR2 to enhance drought stress tolerance and photosynthetic capacity. It achieves this by interacting with TaAOR1 and TaSIG5 to improve antioxidant defense and regulate chloroplast gene expression. Abstract The wheat (Triticum aestivum) brassinazole‐resistant 2 (TaBZR2) gene is identified as
Ze‐Hao Hou, Wei‐Jun Zheng, Lei Zheng, Jing‐Yue Wang, Shuang‐Xi Zhang, Ji‐Tong Wei, Shu‐Hui Yang, Yuan‐Chen Jiao, Wen‐Jing Cheng, Tai‐Fei Yu, Xiao‐Fei Ma, Jing‐Na Ru, Yong‐Wei Liu, Xin‐You Cao, Jun Chen, Yong‐Bin Zhou, Ming Chen, Li‐Hui Li, You‐Zhi Ma, Xiao‐Jun Nie, Zhao‐Shi Xu   +20 more
wiley   +1 more source

CHLOROPLAST DNA VARIATION IN COCONUT IS OPPOSITE TO ITS NUCLEAR DNA VARIATION

CORD, 2002
The pattern of world distribution of two major fruit morphotypes of coconuts has led to development of theories on origin, domestication and dissemination of coconut.
Lalith Perera
doaj   +1 more source

The mitochondrial genome of soybean reveals complex genome structures and gene evolution at intercellular and phylogenetic levels. [PDF]

PLoS ONE, 2013
Determining mitochondrial genomes is important for elucidating vital activities of seed plants. Mitochondrial genomes are specific to each plant species because of their variable size, complex structures and patterns of gene losses and gains during ...
Shengxin Chang, Yankun Wang, Jiangjie Lu, Junyi Gai, Jijie Li, Pu Chu, Rongzhan Guan, Tuanjie Zhao   +7 more
doaj   +1 more source