Results 61 to 70 of about 21,790 (234)

Molecular S-genotyping of sweet cherry (Prunus avium L.) genetic resources

Horticultural Science, 2019
Sweet cherries are self-incompatible, which is determined by a gametophytic self-incompatibility system (GSI). The self-incompatibility is controlled by a multi-allelic S-locus.
Josef Patzak, Alena Henychová, František Paprštein, Jiří Sedlák   +3 more
doaj   +1 more source

Transcriptome Analysis of the Late-Acting Self-Incompatibility Associated with RNase T2 Family in Camellia oleifera

Plants, 2023
The Camellia oil tree (Camellia oleifera Abel.) is an important nonwood forest species in China, and the majority of its cultivars are late-acting self-incompatibility (LSI) types.
Chang Li, Mengqi Lu, Junqin Zhou, Sen Wang, Yi Long, Yan Xu, Xiaofeng Tan   +6 more
doaj   +1 more source

Allelic diversity of S‑RNase alleles in diploid potato species [PDF]

, 2016
S-ribonucleases (S-RNases) control the pistil specificity of the self-incompatibility (SI) response in the genus Solanum and several other members of the Solanaceae.
AD Richman, AD Richman, AD Richman, AG McCubbin, AM Allen, B Igic, B Igic, B Karunanandaa, BA McClure, BB Xu, BG Sutherland, C Despres, D Nettancourt de, D Nettancourt de, D Nettancourt de, D Oxley, Daniel K. Dzidzienyo, DM Spooner, E Asquini, E Zuckerkandl, EH Roalson, Gail Wilde, Glenn J. Bryan, GM Bredemeijer, H Kaufmann, HH Kirch, HS Lee, HS Lee, J Felsenstein, J Murfett, J Thompson, JA Roldan, JL Stone, K Hugot, K Ida, K Tamura, KK Pandey, KS Dodds, M O’Brien, MA Anderson, MD Nowak, MJ Wheeler, MK Saba-el-Leil, MS Cipar, N Saitou, NF Silva, ON Marcellan, PN Dodds, Pushkarnath, S Emerson, S Takayama, SJ Hiscock, T Ishimizu, TH Kao, Timothy P. Robbins, TR Ioerger, TR Ioerger, VE Franklin-Tong, W Broothaerts, X Qi, Y Xue   +60 more
core   +3 more sources

S-RNase–mediated Gametophytic Self-Incompatibility is Ancestral in Eudicots [PDF]

Molecular Biology and Evolution, 2002
The evolutionary relationship between self-incompatibility systems in different families of flowering plants has long been a topic of interest. Physiological differences in the mode of gene action and the enormous sequence differences between genes with different modes of action suggest that many instances of self-incompatibility have arisen ...
J E, Steinbachs, K E, Holsinger
openaire   +2 more sources

Finding a Compatible Partner: Self-Incompatibility in European Pear (Pyrus communis); Molecular Control, Genetic Determination, and Impact on Fertilization and Fruit Set

Frontiers in Plant Science, 2019
Pyrus species display a gametophytic self-incompatibility (GSI) system that actively prevents fertilization by self-pollen. The GSI mechanism in Pyrus is genetically controlled by a single locus, i.e., the S-locus, which includes at least two polymorphic
Hanne Claessen, Wannes Keulemans, Bram Van de Poel, Nico De Storme   +3 more
doaj   +1 more source

Genetic Control of Self-Incompatibility in Centromadia (Hemizonia) Pungens Subsp. Laevis (Madiinae, Asteraceae) [PDF]

, 2002
The presence of self-incompatibility was tested in Centromadia pun gens subsp. laevis and the genetic basis of the self-incompatibility response was explored using crossing studies. We performed full diallel crossing experiments among 10 individuals from
Friar, Elizabeth A., LaDoux, Tasha
core   +3 more sources

LOSS OF GAMETOPHYTIC SELF-INCOMPATIBILITY WITH EVOLUTION OF INBREEDING DEPRESSION [PDF]

Evolution, 2005
Gametophytic self-incompatibility (SI) in plants is a widespread mechanism preventing self-fertilization and the ensuing inbreeding depression, but it often evolves to self-compatibility. We analyze genetic mechanisms for the breakdown of gametophytic SI, incorporating a dynamic model for the evolution of inbreeding depression allowing for partial ...
Emmanuelle, Porcher, Russell, Lande
openaire   +3 more sources

Selecting an appropriate method for expressing S locus F-box-S2 recombinant protein

Biotechnology Reports, 2017
A single locus (S locus) including at least two linked genes (female and male determinants) genetically controls the gametophytic self-incompatibility (GSI) in apple, which has evolved to avoid self-fertilization.
Jahanshah Ashkani, D.J.G. Rees
doaj   +1 more source

A clonal legacy? Reproductive mode variation in hard‐ and soft‐bottom Gracilaria vermiculophylla populations

Journal of Phycology, EarlyView.
Abstract The invasion of the red macroalga Gracilaria vermiculophylla provided an opportunity to investigate the influence of benthic habitats on the reproductive mode, population structure, and colonization dynamics in haploid‐diploid life cycles.
Alexis P. Oetterer, Solenn Stoeckel, Will H. Ryan, Stacy A. Krueger‐Hadfield   +3 more
wiley   +1 more source

S-Genotype Profiles of Turkish Apricot Germplasm

Notulae Botanicae Horti Agrobotanici Cluj-Napoca, 2016
In flowering plants, gametophytic self-incompatibility, controlled by a single locus with several allelic variants, is one of the major problems preventing self-fertilization.
Kadir Ugurtan YILMAZ, Busra BASBUG, Kahraman GURCAN, Hasan PINAR, Julia HALASZ, Sezai ERCISLI, Aydın UZUN, Erdogan COCEN   +7 more
doaj   +1 more source