Yuliya V. Orlova
Current Organizations / Institutes
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Previous Organizations / Institutes
The organizations / institutes from the scholar's other articles in the past ten years
Yuliya V. Orlova has a total of 20 co-authors. Here are the top co-authors by number of shared publications:
- Alexej I. Ulianov
All-Russia Research Institute of Agricultural Biotechnology, 127550 Moscow, Russia
2 shared publications - Ekaterina Vladimirovna Zakharova
All-Russia Research Institute of Agricultural Biotechnology, Moscow 127550, Russia
2 shared publications - Oksana A. Muratova
All-Russia Research Institute of Agricultural Biotechnology, 127550 Moscow, Russia
2 shared publications - Tatiana Petrovna Molchanova
All-Russia Research Institute of Agricultural Biotechnology, Moscow 127550, Russia
2 shared publications - Yaroslav Yu. Golivanov
All-Russia Research Institute of Agricultural Biotechnology, 127550 Moscow, Russia
2 shared publications - Alexander S. Voronkov
K.A. Timiryazev Institute of Plant Physiology, Russian Academy of Sciences, Moscow, Russia
1 shared publication
Latest Publications
- Open Access
Distant Hybridization in Solanaceae: Similarity to Self-Incompatibility of Pollen Tube Growth Arrest as a Reproductive Barrier
Distant hybridization in plants is a powerful tool for broadening genetic diversity and developing new varieties with improved traits. However, crosses between genetically distant species are accompanied by reproductive barriers that prevent successful fertilization. This work investigated pollen–pistil interactions during the progamic phase of fertilization in distant crosses involving four members of the Solanaceae family, using several cross combinations. In all cross combinations, pollen of all species germinated on the stigma, grew through the transmitting tissues of the style and ceased growth at a specific distance from the stigma surface. Our studies have revealed that the arrest of pollen tube growth during distant hybridization exhibits a striking similarity to that observed in the gametophytic S-RNase-based self-incompatibility mechanism of Solanaceae plants. Elucidating the mechanisms of pollen tube growth arrest during distant hybridization in Solanaceae will provide deeper insight into the nature of reproductive barriers and aid in the development of strategies to overcome them, thereby expanding the possibilities for successful hybridization between distant species and enabling the creation of valuable new varieties.
Open AccessDistant Hybridization in Solanaceae: Similarity to Self-Incompatibility of Pollen Tube Growth Arrest as a Reproductive Barrier
Distant hybridization in plants is a powerful tool for broadening genetic diversity and developing new varieties with improved traits. However, crosses between genetically distant species are accompanied by reproductive barriers that prevent successful fertilization. This work investigated pollen–pistil interactions during the progamic phase of fertilization in distant crosses involving four members of the Solanaceae family, using several cross combinations. In all cross combinations, pollen of all species germinated on the stigma, grew through the transmitting tissues of the style and ceased growth at a specific distance from the stigma surface. Our studies have revealed that the arrest of pollen tube growth during distant hybridization exhibits a striking similarity to that observed in the gametophytic S-RNase-based self-incompatibility mechanism of Solanaceae plants. Elucidating the mechanisms of pollen tube growth arrest during distant hybridization in Solanaceae will provide deeper insight into the nature of reproductive barriers and aid in the development of strategies to overcome them, thereby expanding the possibilities for successful hybridization between distant species and enabling the creation of valuable new varieties.
- Open Access
Pollen–Pistil Interaction During Distant Hybridization in Plants
A combination of high potential productivity and ecological stability is essential for current cultivars, which is achievable by breeding. Interspecific/intergeneric hybridization remains a key approach to producing new high-yielding and resistant cultivars. Interspecific reproductive barriers (IRBs) appear in the interaction between the pollen and pistil of interspecific/intergeneric hybrids. The mechanisms underlying these hybridization barriers are to a considerable degree unknown. The pollen–pistil interaction is decisive because the pollen of distantly related plant species either is not recognized by stigma cells or is recognized as foreign, preventing pollen tube (PT) germination and/or penetration into the stigma/style/ovary. This review mainly focuses on (1) the pollen–pistil system; (2) IRB classification; (3) similarity and differences in the function of self-incompatibility (SI) barriers and IRBs; and (4) physiological and biochemical control of IRBs and their overcoming. The main goal is to illuminate the physiological, biochemical, and molecular mechanisms underlying the growth arrest of incompatible PTs and their death. In general, this review consolidates the current understanding of the interaction of the male gametophyte with the sporophyte tissues of the pistil and outlines future research directions in the area of plant reproductive biology.
Open AccessPollen–Pistil Interaction During Distant Hybridization in Plants
A combination of high potential productivity and ecological stability is essential for current cultivars, which is achievable by breeding. Interspecific/intergeneric hybridization remains a key approach to producing new high-yielding and resistant cultivars. Interspecific reproductive barriers (IRBs) appear in the interaction between the pollen and pistil of interspecific/intergeneric hybrids. The mechanisms underlying these hybridization barriers are to a considerable degree unknown. The pollen–pistil interaction is decisive because the pollen of distantly related plant species either is not recognized by stigma cells or is recognized as foreign, preventing pollen tube (PT) germination and/or penetration into the stigma/style/ovary. This review mainly focuses on (1) the pollen–pistil system; (2) IRB classification; (3) similarity and differences in the function of self-incompatibility (SI) barriers and IRBs; and (4) physiological and biochemical control of IRBs and their overcoming. The main goal is to illuminate the physiological, biochemical, and molecular mechanisms underlying the growth arrest of incompatible PTs and their death. In general, this review consolidates the current understanding of the interaction of the male gametophyte with the sporophyte tissues of the pistil and outlines future research directions in the area of plant reproductive biology.
- 1 October 2018
- Published by Pleiades Publishing Ltd in Biochemistry (Moscow), Supplement Series A: Membrane and Cell Biology
- Vol. 12 (4) , 382-389
Participation of Endocytosis in Sodium Ion Uptake by the Cells of Arabidopsis thaliana (L.) Heynh in the Suspension Culture
The involvement of endocytosis in the Na+ ion uptake from the external medium by the cells of suspension culture derived from A. thaliana (Col-0) leaves was investigated. Na+ion uptake by...
- 1 October 2018
- Published by Pleiades Publishing Ltd in Biochemistry (Moscow), Supplement Series A: Membrane and Cell Biology
- Vol. 12 (4) , 382-389
Participation of Endocytosis in Sodium Ion Uptake by the Cells of Arabidopsis thaliana (L.) Heynh in the Suspension Culture
The involvement of endocytosis in the Na+ ion uptake from the external medium by the cells of suspension culture derived from A. thaliana (Col-0) leaves was investigated. Na+ion uptake by...