Plant nutrient uptake and metabolism

This study uses deep mutational scanning to analyze sequence-function relationships in the plant SWEET transporter AtSWEET13, identifying mutations that enhance transport function and revealing constraints in transmembrane helix 4.

This study identifies ClPHRs as key regulators of phosphate starvation signaling in Chinese fir, revealing evolutionary differences in the SPX-PHR module compared to model plants.

This study identifies GmRALF22 as a low phosphorus-responsive gene regulated by GmPHR1, which enhances phosphate uptake by upregulating phosphate transporter genes in soybean.

The paper compares root transcriptomes of two rice genotypes under phosphorus conditions to identify molecular mechanisms underlying phosphorus-use efficiency.

This study investigates the role of SUC2 in apoplasmic sucrose levels and its impact on phloem loading strategies in Arabidopsis, revealing its influence on foliar carbohydrate storage and interactions with symplasmic pathways.

This study identifies BnGRP1 genetic variation associated with low phosphorus tolerance in rapeseed, showing its role in root growth and phosphate transporter gene expression.

The paper identifies TaPCGR1-3B as a receptor modulating nutrient-growth through Ca2+ signaling and phosphatidylcholine perception in response to nitrogen deficiency.

This study compares two tomato cultivars with differing potassium deficiency resistance, identifying genetic and physiological differences associated with low-K+ tolerance.

The paper investigates how the absence of AMT transporters affects nitrogen and carbon metabolism in Anabaena sp. 7120, revealing internal molecular adaptations with minimal external phenotypes.

The paper integrates a 3D soil-root model with experimental data to study water and phosphorus uptake in upland rice under varying nutrient and water conditions.

The paper identifies MdBT2 as a regulator of malate accumulation in apple by ubiquitinating and degrading MdCIbHLH1 in response to nitrate.