With the intensifying pressure of global climate change and resource constraints, the transition of traditional agriculture toward highly efficient, precise, and sustainable smart agriculture has become an inevitable trend. As the absolute core of agricultural production, crops p…
Traditional crop growth models predominantly rely on mass conservation and energy flow to simulate biomass accumulation and yield formation, often struggling to capture non-linear responses, critical phase transitions, and phenotypic plasticity under fluctuating environmental str…
Traditional crop physiology and agronomic research predominantly rely on static cross-sectional evaluations to assess stress resistance and yield potential. However, a crop's terminal phenotype and yield are not dictated by its instantaneous status at a single growth stage, but r…
Driven by accelerating global climate change and frequent extreme weather events, traditional agricultural production systems face unprecedented challenges regarding survival and productivity. This paper systematically proposes a novel interdisciplinary concept termed Agricultura…
Modern agriculture, driven by reductionist approaches and intensive inputs, faces unprecedented environmental and ecological bottlenecks, including soil degradation, loss of biodiversity, and increased vulnerability to climate change. This paper proposes Farmland Complexity Scien…