Results 11 to 20 of about 11,939 (237)

Paleopolyploidies and Genomic Fractionation in Major Eudicot Clades

Frontiers in Plant Science, 2022
Eudicots account for ~75% of living angiosperms, containing important food and energy crops. Recently, high-quality genome sequences of several eudicots including Aquilegia coerulea and Nelumbo nucifera have become available, providing an opportunity to ...
Jia Teng, Jianyu Wang, Lan Zhang, Chendan Wei, Shaoqi Shen, Qimeng Xiao, Yuanshuai Yue, Yanan Hao, Weina Ge, Jinpeng Wang, Jinpeng Wang   +10 more
doaj   +3 more sources

Evolution of Alternative Splicing in Eudicots [PDF]

Frontiers in Plant Science, 2019
Alternative pre-mRNA splicing (AS) is prevalent in plants and is involved in many interactions between plants and environmental stresses. However, the patterns and underlying mechanisms of AS evolution in plants remain unclear.
Zhihao Ling, Thomas Brockmöller, Ian T. Baldwin, Shuqing Xu   +3 more
doaj   +7 more sources

A survey of tricolpate (eudicot) phylogenetic relationships [PDF]

American Journal of Botany, 2004
The phylogenetic structure of the tricolpate clade (or eudicots) is presented through a survey of their major subclades, each of which is briefly characterized. The tricolpate clade was first recognized in 1989 and has received extensive phylogenetic study. Its major subclades, recognized at ordinal and familial ranks, are now apparent.
Walter S. Judd, Richard G. Olmstead
openalex   +4 more sources

Differing structures of galactoglucomannan in eudicots and non-eudicot angiosperms [PDF]

PLOS ONE, 2023
AbstractThe structures of cell wall mannan hemicelluloses have changed during plant evolution. Recently, a new structure called β-galactoglucomannan (β-GGM) was discovered in eudicot plants. This galactoglucomannan has β-(1,2)-Gal-α-(1,6)-Gal disaccharide branches on some mannosyl residues of the strictly alternating Glc-Man backbone.
Konan Ishida, Yusuke Ohba, Yoshihisa Yoshimi, Louis F. L. Wilson, Alberto Echevarría‐Poza, Li Yu, Hiroaki Iwai, Paul Dupree   +7 more
openalex   +4 more sources

Rubisco evolution in C₄ eudicots: an analysis of Amaranthaceae sensu lato. [PDF]

PLoS ONE, 2012
Rubisco (ribulose-1,5-bisphosphate carboxylase/oxygenase) catalyses the key reaction in the photosynthetic assimilation of CO₂. In C₄ plants CO₂ is supplied to Rubisco by an auxiliary CO₂-concentrating pathway that helps to maximize the carboxylase ...
Maxim V Kapralov, J Andrew C Smith, Dmitry A Filatov   +2 more
doaj   +4 more sources

Dehydration rapidly induces expression of NCED genes from a single subclade in diverse eudicots. [PDF]

Planta
Vo HM, Charleston MA, Brodribb TJ, Sussmilch FC.   +3 more
europepmc   +2 more sources

Phylogenetic studies of magnoliids: Advances and perspectives

Frontiers in Plant Science, 2023
Magnoliids are the largest flowering plant clades outside of the eudicots and monocots, which are distributed worldwide and have high economic, ornamental and ecological values.
Zhiguo Shen, Xin Ding, Jianming Cheng, Fangfang Wu, Hengfu Yin, Minyan Wang   +5 more
doaj   +1 more source

Vascular Epiphyte Diversity in a Key Atlantic Forest Remnant from Minas Gerais State, Southeastern Brazil

Floresta e Ambiente, 2023
Vascular epiphytes contribute significantly to the biodiversity of tropical forests. We aimed to identify the epiphyte species occurring in the Muriqui Trail at Serra do Brigadeiro State Park (SBSP), a priority area for Atlantic forest conservation in ...
Jaqueline Dias-Pereira, Guilherme Carvalho Andrade, Luiz Menini Neto, Luzimar Campos da Silva, Flávia Bonizol Ferrari, Rogério Ferreira Ribas, Aristea Alves Azevedo   +6 more
doaj   +1 more source

Expression and trans-specific polymorphism of self-incompatibility RNases in Coffea (Rubiaceae) [PDF]

, 2011
Self-incompatibility (SI) is widespread in the angiosperms, but identifying the biochemical components of SI mechanisms has proven to be difficult in most lineages. Coffea (coffee; Rubiaceae) is a genus of old-world tropical understory trees in which the
A Carvalho, A Charrier, A Charrier, A Rambaut, Aaron P. Davis, AD Richman, AG Clark, AJ Bateman, AM Allen, Anderson, Anne D. Yoder, B Chawla, B Devier, B Igic, B Igic, B Igic, B McClure, BC Husband, CM Sloop, D Charlesworth, D Charlesworth, D Charlesworth, D de Nettancourt, D Wheeler, Daniel Ortiz-Barrientos, Davis, Davis, DE Klein, DP Matton, E Gasteiger, EE Goldberg, F Abascal, F Anthony, F Berthou, F Figueroa, F Ronquist, FE Vega, François Anthony, GC MacIntosh, GE Crooks, GL Stebbins, GM Riveros, H Sassa, H Sassa, HLK Whitehouse, HS Lee, I Coulibaly, J Berthaud, J Tosh, J Vieira, J Vieira, J Vieira, JAA Nylander, JB Nasrallah, JE Steinbachs, JP Foxe, JS Miller, JS Miller, K Robertson, K Ushijima, K Yeung, M Bosch, M Irie, M Paetsch, M Watanabe, MA Anderson, MA Anderson, MA Frohman, Michael D. Nowak, MK Uyenoyama, MP Alexander, N Luhtala, O Maurin, O Plechakova, P Kaothien-Nakayama, P Lashermes, P Lashermes, P Stoffelen, PJ Green, R Govaerts, S Magallon, S Sherman-Broyles, Schemske, Swofford, T Itagaki, T Kao, TR Ioerger, V Franklin-Tong, V Franklin-Tong, WR Anderson, X Vekemans, X Wu, Y Brandvain, Y Zhang, YL Guo, Z Lai, Z Yang   +96 more
core   +14 more sources

Bees diversified in the age of eudicots [PDF]

Proceedings of the Royal Society B: Biological Sciences, 2013
Reliable estimates on the ages of the major bee clades are needed to further understand the evolutionary history of bees and their close association with flowering plants. Divergence times have been estimated for a few groups of bees, but no study has yet provided estimates for all major bee lineages.
Bryan N. Danforth, Sophie Cardinal
openaire   +3 more sources