Breeding climate-resilient crops with improved levels of abiotic and biotic stress resistance
as a response to climate change presents both opportunities and challenges. Applying the …

Key message Climate change and Genotype-by-Environment-by-Management interactions
together challenge our strategies for crop improvement. Research to advance prediction …

As climate change leads to increased frequency and severity of drought in many agricultural
regions, a prominent adaptation goal is to reduce the drought sensitivity of crop yields. Yet …

Abstract A Crop Growth Model (CGM) is used to demonstrate a biophysical framework for
predicting grain yield outcomes for Genotype by Environment by Management (G× E× M) …

Grasslands dominate the terrestrial landscape, and grasses have evolved complex and
elegant strategies to overcome abiotic stresses. The C4 grasses are particularly stress …

Plant-breeding programs are designed and operated over multiple cycles to systematically
change the genetic makeup of plants to achieve improved trait performance for a Target …

Studies at a regional scale suggest that although maize (Zea mays L.) yield increased
substantially, sensitivity to water deficit also increased concurrently with crop improvement …

New challenges arise in risk assessment when genetically engineered (GE) plants can
persist and propagate in the environment as well as produce viable offspring. Next …

Summary Genotype‐by‐environment‐by‐management (G× E× M) interactions for crop
productivity represent both challenges and opportunities for long‐term crop improvement …

We review approaches to maize breeding for improved drought tolerance during flowering
and grain filling in the central and western US corn belt and place our findings in the context …