Search engine for discovering works of Art, research articles, and books related to Art and Culture
ShareThis
Javascript must be enabled to continue!

Identification of mega‐environments for grain sorghum in Brazil using GGE biplot methodology

View through CrossRef
AbstractThe performance of genotypes in a wide range of environments can be affected by extensive genotype × environment (G × E) interactions, making the subdivision of the testing environments into relatively more homogeneous groups of locations (mega‐environments) a necessary strategy. The genotype main effects + genotype × environment interaction biplot method (GGE) allows identification of mega‐environments and selection of stable genotypes adapted to specific environments and mega‐environments. The objectives of this study were to identify mega‐environments regarding sorghum [Sorghum bicolor (L.) Moench] grain yield and demonstrate that the GGE biplot method can identify essential locations for conducting tests in different mega‐environments. A total of 22 competition trials of grain sorghum genotypes were conducted over three crop seasons across several production locations in Brazil. A total of 25, 22, and 30 genotypes were evaluated during the first, second, and third crop seasons, respectively. After identifying the presence of G × E interactions, the data were subjected to adaptability and stability analyses using the GGE biplot method. A phenotypic correlation network was used to express functional relationships between environments. The GGE biplot was found to be an efficient approach for identifying three mega‐environments in grain sorghum in Brazil, selecting representative and discriminative environments, and recommending more adaptive and stable grain sorghum genotypes.
Title: Identification of mega‐environments for grain sorghum in Brazil using GGE biplot methodology
Description:
AbstractThe performance of genotypes in a wide range of environments can be affected by extensive genotype × environment (G × E) interactions, making the subdivision of the testing environments into relatively more homogeneous groups of locations (mega‐environments) a necessary strategy.
The genotype main effects + genotype × environment interaction biplot method (GGE) allows identification of mega‐environments and selection of stable genotypes adapted to specific environments and mega‐environments.
The objectives of this study were to identify mega‐environments regarding sorghum [Sorghum bicolor (L.
) Moench] grain yield and demonstrate that the GGE biplot method can identify essential locations for conducting tests in different mega‐environments.
A total of 22 competition trials of grain sorghum genotypes were conducted over three crop seasons across several production locations in Brazil.
A total of 25, 22, and 30 genotypes were evaluated during the first, second, and third crop seasons, respectively.
After identifying the presence of G × E interactions, the data were subjected to adaptability and stability analyses using the GGE biplot method.
A phenotypic correlation network was used to express functional relationships between environments.
The GGE biplot was found to be an efficient approach for identifying three mega‐environments in grain sorghum in Brazil, selecting representative and discriminative environments, and recommending more adaptive and stable grain sorghum genotypes.

Related Results

Effect of sorghum flour substitution on pasting behavior of wheat flour and application of composite flour in bread
Effect of sorghum flour substitution on pasting behavior of wheat flour and application of composite flour in bread
The objective of this study was to investigate the effect of sorghum flour substitution to wheat flour on pasting and thermal properties of the composite flours as well as firmness...
Performance Evaluation of Different Sorghum Genotypes (Sorghum bicolour (L.) Moench) Using GGE Bi-plot Stability Analysis
Performance Evaluation of Different Sorghum Genotypes (Sorghum bicolour (L.) Moench) Using GGE Bi-plot Stability Analysis
Sorghum (Sorghum bicolor (L.) Moench) is an important essential cereal crop in Ethiopia. Conversely, its productivity is low due to numerous biotic and abiotic factors. There are d...
Effect of Sorghum-Mung Bean Intercropping on Sorghum-Based Cropping System in the Lowlands of North Shewa, Ethiopia
Effect of Sorghum-Mung Bean Intercropping on Sorghum-Based Cropping System in the Lowlands of North Shewa, Ethiopia
Due to decreasing land units and a decline in soil fertility, integrating mung beans into the Sorghum production system is a viable option for increasing productivity and producing...
PROSPECTS OF BIOGAS OBTAINING FROM SWEET SORGHUM IN UKRAINE
PROSPECTS OF BIOGAS OBTAINING FROM SWEET SORGHUM IN UKRAINE
The development of energy has a decisive influence on the state of the economy in the country and the standard of living of the population. The production of biogas from renewable ...
Selection of grain sorghum varieties for the north Caucasian region of Russia
Selection of grain sorghum varieties for the north Caucasian region of Russia
It is possible to solve the problem of productivity and improve the gross harvest of agricultural products by introducing new varieties and hybrids adapted to the conditions of cul...

Back to Top