Nectar secretion of RN-type cytoplasmic male sterility three lines in soybean [Glycine max (L.) Merr.]

Abstract

Nectar secretion of RN-type cytoplasmic male sterility three lines in soybean [Glycine max (L.

Male sterility and hybrid breeding in soybean

“…16, Glyma.16G161900 ; Rf3 , Chr. 9, Glyma.09G171200 (Sun et al, 1994a ), (Sun et al, 1994b ), (Sun, et al 2001 ), (Zhang, et al 2018a ), (Zhang, et al 2021 ), (Zhang, et al 2018c ), (Wang, et al 2010 ), (Yan, et al 2019 ), (Lin, et al 2014 ), (Guo, et al 2022 ), (Sun, et al 2022 ), (Yang, et al 2023 ) CMS-ZD ZD8319 (Zhongdou 19), Zhongyou 89B M, ZA, W931A, FuCMS5A, SXCMS1A, SXCMS5A, JLCMSZ9A Rf , Chr. 16, between BARCSOYSSR_16_1064 and BARCSOYSSR_16_1082; Rf-m , Chr.…”

Mapping within‑field variability of soybean evapotranspiration and crop coefficient using the Earth Engine Evaporation Flux (EEFlux) application

“…The study was carried out on a traditional farm cropped with soybean (Glycine max L.) located in the municipality of São Desidério, in the western region of the state of Bahia, Brazil. Soybean is the main commercial oilseed crop and one of the main sources of vegetable oil and vegetable protein in the world [28,29] and is also the most important crop of Brazil [30]. This region stands out in the Brazilian and global map of agribusiness, being responsible to produces 100% of the soybean crop of the state, and 65% of its cultivated areas are occupied by this oilseed.…”

Male sterility in soybean: Occurrence, molecular basis and utilization

“…On the top, the environment is a decisive factor, which directly effects on the pollination media (wind, insects, etc. ), crop growth and development, pollen development and nectar secretion (Zhang, Sun, et al, ; Zhao et al, ). Secondly, the outcrossing rate of pollination mainly via insects, bees, etc directly determines the seed production of soybean hybrids (Dai et al, ; Zhao et al, ).…”

“…Moreover, over the past few decades, extensive researches on the different aspects of soybean MS (CMS and NMS system) had been conducted based on traditional breeding and development of modern molecular technology, which mainly included hybrid seed production and population improvement (Ding, Gai, Cui, & Qiu, ; Gai & Fehr, ; Grayboach & Palmer, ; Jin, Horner, & Palmer, ; Lewers & Palmer, ; Sun, Zhao, & Huang, ; Sun, Zhao, Wang, Wang, & Li, ; Wang et al, ; Xie, ; Zhao et al, , ), three‐line breeding (Bai & Gai, ; Dai et al, ; Ding et al, ; Li, Ding, et al, ; Nie, Zhao, Yang, & Gai, ; Zhao & Gai, ) and recurrent selection (Lewers & Palmer, ; Si, Wang, Qiu, Gai, & Burton, ; Song, Wu, & Gai, ; Zhao et al, ). In addition, cytology and structural characteristics (Bione, Pagliarini, & Almeida, ; Chen, Albertsen, & Palmer, ; Chen & Palmer, ; Ding & Gai, ; Zhang, Sun, et al, ), genetics (Bai & Gai, ; Baumbach et al, ; Cervantes‐Martinez et al, , ; Kato & Palmer, , ; Ott et al, ; Perez‐Sackett & Palmer, ; Speth et al, ; Yang et al, ), tissue structure (chloroplasts and mitochondria) (Bione, Pagliarini, & Almeida, ; Chang et al, ; Horn et al, ; Lin et al, ), epigenetics and omics level (Ding et al, ; Ding, Wang, et al, ; Ding, Zhang, et al, ; Han et al, ; Li et al, , ; Li, Yang, & Gai, ; Li, Ding, et al, ), localization and function of fertility and restoring gene traits were also studied (Baumbach et al, ; Dong et al, ; Huang et al, ; Jiang, Yang, Yu, & Gai, ; Jiang, Yang, Yu, & Gai, ; Raval et al, …”