A5041624219- Plant Reproductive Biology
- X-ray Diffraction in Crystallography
- Plant Molecular Biology Research
- Crystallization and Solubility Studies
- Plant pathogens and resistance mechanisms
- Zeolite Catalysis and Synthesis
- Phase Equilibria and Thermodynamics
- Legume Nitrogen Fixing Symbiosis
- Carbon Dioxide Capture Technologies
- Turfgrass Adaptation and Management
- Plant and animal studies
Chinese Academy of Sciences
1993-2025
University of Chinese Academy of Sciences
2021-2025
Beijing Institute of Genomics
2021-2025
Dalian Institute of Chemical Physics
1993
The self-incompatibility (SI) system with the broadest taxonomic distribution in angiosperms is based on multiple S-locus F-box genes (SLFs) tightly linked to an S-RNase termed type-1. Multiple SLFs collaborate detoxify nonself S-RNases while being unable self S-RNases. However, it unclear how such a evolved, because ancestral single SLF, many would not be detoxified, giving low cross-fertilization rates. In addition, has been maintained face of whole-genome duplications (WGDs) or lost other...
Self-incompatibility (SI) is an important genetic mechanism in angiosperms that prevents inbreeding and promotes outcrossing. Although significant progress has been made understanding SI, its molecular underpinnings evolutionary origins remain elusive many plant families. In eudicots, SI typically regulated by a single S-locus with diverse S-haplotypes, while grasses, it controlled two separate S Z loci. Genome assemblies of plants have greatly facilitated the identification analysis S-loci....
ABSTRACT Self‐incompatibility (SI) is an intraspecific reproductive barrier widely present in angiosperms. The SI system with the broadest occurrence angiosperms based on S‐RNase linked to a cluster of multiple S‐locus F‐box ( SLF ) genes found Solanaceae, Plantaginaceae, Rosaceae, and Rutaceae. Recent studies reveal that non‐self degraded by Skip Cullin (SCF) ‐mediated ubiquitin–proteasome collaborative manner Petunia , but how self‐RNase functions largely remains mysterious. Here, we show...
Abstract Self-incompatibility (SI) in the grass family (Poaceae) is controlled by a gametophytic two-locus system (S and Z). Recent studies have revealed several genes linked to S Z loci, but their roles remain largely unclear. Here, we discover that OlS1-HPS10 OlS1-DUF247-1 control self-incompatibility of African wild rice (Oryza longistaminata), Poaceae species. encode small extracellular pistil peptide pollen-specific transmembrane protein, respectively, which can physically interact with...