Genomic selection (GS) increases genetic gain by reducing the length of the selection cycle,
as has been exemplified in maize using rapid cycling recombination of biparental …

Exotic maize (Zea mays L.) germplasm may allow for increased flexibility and greater long-
term progress from selection if it can be incorporated at high rates into US breeding …

Key message Incorporating feature-engineered environmental data into machine learning-
based genomic prediction models is an efficient approach to indirectly model genotype-by …

To investigate the genetic basis of maize adaptation to temperate climate, collections of 375
inbred lines and 275 landraces, representative of American and European diversity, were …

In a hybrid maize (Zea mays L.) breeding program that utilizes genomic selection, resource
allocation used in phenotypic data acquisition must be balanced between population size …

Maize is highly genetically and phenotypically diverse. Tropical maize and teosinte are
important genetic resources that harbor unique alleles not found in temperate maize hybrids …

Molecular-marker loci were used to investigate the adaptation differences between highland
and lowland tropical maize. An F 2 population from the cross of two inbred lines …

Tropical maize (Zea mays L.) represents a valuable genetic resource containing unique
alleles not present in elite temperate maize. The strong delay in flowering in response to …

The extensive genetic variation present in maize (Zea mays) germplasm makes it possible to
detect signatures of positive artificial selection that occurred during temperate and tropical …

Maize (Zea mays L.) production has significantly expanded into very short-season
environments where germination and growth in cooler environments is essentially a pre …