Results 51 to 60 of about 1,096,010 (335)

The Chloroplast Genome of a Symbiodinium sp. Clade C3 Isolate [PDF]

, 2014
Dinoflagellate algae of the genus Symbiodinium form important symbioses within corals and other benthic marine animals. Dinoflagellates possess an extremely reduced plastid genome relative to those examined in plants and other algae.
Barbrook, Adrian C., Howe, Christopher J., Voolstra, Christian R.   +2 more
core   +1 more source

The Complete Chloroplast Genome of Arabidopsis thaliana Isolated in Korea (Brassicaceae): An Investigation of Intraspecific Variations of the Chloroplast Genome of Korean A. thaliana

International Journal of Genomics, 2020
Arabidopsis thaliana (L.) Heynh. is a model organism of plant molecular biology. More than 1,700 whole genome sequences have been sequenced, but no Korean isolate genomes have been sequenced thus far despite the fact that many A.
Jongsun Park, Hong Xi, Yongsung Kim
semanticscholar   +1 more source

The complete chloroplast genome sequence of Siphonostegia chinensis Benth. (Orobanchaceae)

Mitochondrial DNA. Part B. Resources, 2019
Siphonostegia chinensis Benth. is a common Chinese herbal medicine widely distributed in eastern Asia. The complete chloroplast genome of S. chinensis was newly sequenced in this study.
Jing Gao, Yong-Hui Jin, Ya-Qian Li, Ying-Xi Qian, Cong Zhang, Rui-Hong Wang, Zhe-Chen Qi   +6 more
doaj   +1 more source

Comparative analysis of the complete chloroplast genome of Papaveraceae to identify rearrangements within the Corydalis chloroplast genome.

PLoS ONE, 2023
Chloroplast genomes are valuable for inferring evolutionary relationships. We report the complete chloroplast genomes of 36 Corydalis spp. and one Fumaria species.
Sang-Chul Kim, Young-Ho Ha, Beom Kyun Park, Ju Eun Jang, Eun Su Kang, Young-Soo Kim, Tae-Hee Kimspe, Hyuk-Jin Kim   +7 more
doaj   +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

Physiological and transcriptomic evidence for a close coupling between chloroplast ontogeny and cell cycle progression in the pennate diatom Seminavis robusta [PDF]

, 2008
Despite the growing interest in diatom genomics, detailed time series of gene expression in relation to key cellular processes are still lacking. Here, we investigated the relationships between the cell cycle and chloroplast development in the pennate ...
Chepurnov, Victor A, D'hondt, Sofie, De Veylder, Lieven, Devos, Valerie, Gillard, Jeroen, Huysman, Marie, Inzé, Dirk, Martens, Cindy, Sabbe, Koen, Vannerum, Katrijn, Vanormelingen, Pieter, Vuylsteke, Marnik, Vyverman, Wim   +12 more
core   +3 more sources

Fine structural features of the chloroplast genome: comparison of the sequenced chloroplast genomes

Nucleic Acids Research, 1991
The entire nucleotide sequences of the rice, tobacco and liverwort chloroplast genomes have been determined. We compared all the chloroplast genes, open reading frames and spacer regions in the plastid genomes of these three species in order to elucidate general structural features of the chloroplast genome.
Masahiro Sugiura, Hiroaki Shimada
openaire   +4 more sources

Genome Editing of Plant Mitochondrial and Chloroplast Genomes

Plant And Cell Physiology, 2023
Abstract Plastids (including chloroplasts) and mitochondria are remnants of endosymbiotic bacteria, yet they maintain their own genomes, which encode vital components for photosynthesis and respiration, respectively. Organellar genomes have distinctive features, such as being present as multicopies, being mostly inherited maternally ...
Shin-ichi Arimura, Issei Nakazato
openaire   +2 more sources

Characterization of the complete chloroplast genome of Cycas hongheensis (Cycadaceae), an endemic species in the red river region of China

Mitochondrial DNA. Part B. Resources, 2021
In this study, we determined the complete chloroplast genome of Cycas hongheensis (Cycadaceae), one of the first-class protected plants in China. The chloroplast genome is 162,048 bp in length with 133 genes, including 87 protein-coding genes, eight ...
Li-Xin Wu, Yue-Hua Wang, Xun Gong
doaj   +1 more source

The complete chloroplast genome sequence of Swertia japonica (Schult.) Makino (Gentianaceae)

Mitochondrial DNA. Part B. Resources, 2023
Swertia japonica (Schult.) Makino is a traditional medicinal plant in Japan for which the chloroplast genome has not been previously reported. The complete chloroplast genome of S. japonica was determined using a high-throughput sequencing technique. The
Watanabe Yoichi
doaj   +1 more source