Self-incompatibility (SI) mechanisms prevent self-fertilization in flowering plants based on
specific discrimination between self-and non-self pollen. Since this trait promotes …

Self-incompatibility (SI) plays a pivotal role in whether self-pollen is accepted or rejected.
Most SI systems employ two tightly linked loci encoding highly polymorphic pollen (male) …

Doubled haploid technology has been widely applied to multiple plant species and is
recognized as one of the most important technologies for improving crop breeding efficiency …

Most plants in the Brassicaceae evolve self-incompatibility (SI) to avoid inbreeding and
generate hybrid vigor. Self-pollen is recognized by the S-haplotype-specific interaction of the …

Self-incompatibility (SI) is a mechanism that many plant families employ to prevent self-
fertilization. In the Brassicaceae, the S-haplotype-specific interaction of the pollen-borne …

Plant signaling peptides are involved in cell–cell communication networks and coordinate a
wide range of plant growth and developmental processes. Signaling peptides generally bind …

Plants have evolved diverse self-incompatibility (SI) systems for outcrossing. Ever since
Darwin's time, considerable progress has been made toward elucidating this unrivaled …

Self-incompatibility (SI) is a prezygotic mechanism that prevents self-pollination in flowering
plants by distinguishing between nonself-and self-pollen. It controls sexual reproduction by …

Phospholipases (PLs) are lipid-hydrolyzing enzymes known to have diverse signaling roles
during plant abiotic and biotic stress responses. They catalyze lipid remodeling, which is …

Self‐incompatibility plays a vital role in angiosperms, by preventing inbreeding depression
and maintaining genetic diversity within populations. Following polyploidization, many …